4BT LEAN OpenJOC JOB ORDER CONTRACTING(TM) SOLUTION

The innovative 4BT LEAN OpenJOC Job Order Contracting Solution consistently delivers BEST VALUE where others fall short.   Please all the tools, training, data sets, support, and technology are readily available within our OpenJOC JOC-in-a-Box Tookit(TM).

  • All Participants and Stakeholders are Bound Together as Equals
  • Contractually Defined and Fully Detailed Roles, Responsibilities, Documentation, and Workflows
  • Mandatory Collaboration – Early and Ongoing Information Sharing
  • Reward for Consensus-based, Outcome-focused Decisions and Actions
  • Shared Financial Risk and Reward Based on Project Outcome
  • Virtual Elimination of Legal Disputes, Change Orders, and Potential for Fraud
  • Full Financial Transparency – Locally Researched (not simply “localized”), Accurate, Verifiable, Detailed, Objective, Credible, and Comprehensive Unit Price Line Item Cost Data
  • Compliant – Federal (including EDGAR), State, County, Local Requirements
  • Mutually Developed and Approved Detailed Scope of Work
  • Continuous Improvement and Monitoring, including Key  Performance Indicators
  • Co-location of Teams
  • Environment of Mutual Trust and Respect
  • Focus upon outcomes – maximizing value, minimizing waste

    job order contracting solution

    Job Order Contracting Solution

4BT LEAN OpenJOC Solution

 

 


Does your Job Order Contracting Management Software work like this?

It may be time to upgrade to a BEST Value solution.

  1. Transparently control your JOC Program.
  2. Automate repetitive tasks to save time.
  3. Robust locally researched unit price book.
  4. Independent audit of every project…. fully compliant.
  5. Fully customizable workflows (task, sequences, timing, sign offs).
  6. Secure access, anytime, anywhere on any device.

We are Four BT, LLC (4BT). 

We saw the need for open, customer-focused, cost-effective, JOC solutions based upon LEAN best management practices. 

Sure, we are a young company, but our founders have decades of experience with organizations including R.S. Means Company, LLC, US Cost, VFA, Inc., and The JOC Group, serving over $4.5B in JOC construction annually.  Some of the largest County, State, and educational institutions are already converting to our 4BT OpenJOC Job Order Contracting Solution.

We help guide organizations to achieve accelerated improvement of their facilities repair, renovation, and construction outcomes and focus upon customer value.   Let us help your team deploy proven LEAN processes, actionable and robust data, enabling cloud technology.   Consistently deploy quality repair, renovation, maintenance, sustainability, and new construction projects on-time, on-budget, and to everyone’s satisfaction.

Contact us directly at info@4bt.us, or visit 4BT.US!

Job Order Contracting Solution

Federal Government Procurement Fraud

Federal Government procurement fraud remains at best a severe risk, and at worst, rampant.

FRAUD RISK MANAGEMENT:

OMB Should Improve Guidelines and Working-Group Efforts to Support Agencies’ Implementation of the Fraud Reduction and Data Analytics Act

GAO-19-34: Published: Dec 4, 2018. Publicly Released: Dec 4, 2018.

 

COMMITMENT-BASED LEAN CONSTRUCTION DELIVERY for Public Sector Facilities Owners

Commitment-based LEAN Construction Delivery enables consistent, on-demand delivery of quality repair, renovation, and new construction projects on-time and on-budget.   All the tools, training, support, workflows, and standardized data environments are available within the innovative, powerful OpenJOC(TM) LEAN Job Order Contracting Framework.

Any public sector facilities portfolio owner or facilities management team with requisite leadership and competency can assure full financial transparency and drive significant measurable improvement.

Job Order Contracting Training

The Commitment-based OpenJOC(TM) LEAN Construction Delivery Framework exclusively provides….

  1. Definable workflows complete with assigned individuals, required timelines, associated documents… with full event tracking.
  2. Locally researched detailed line item cost data (no use of national average and/or reference cost data or localization factors).
  3. Full compliance
  4. Initial on-going multi-level and multi-format training.

Request a white paper, or on-line demonstration…

What is LEAN

Collaborative Job Order Contracting

Collaborative Job Order Contracting via the innovative OpenJOC Solution (TM) drives improved renovation, repair, and minor new construction outcomes.

Any owner can access this reliable suite of project delivery and partnering tools based upon…

  • Real Project Collaboration: Focus upon outcomes and project enhancement…Client and Project first mindset.

  • Mutual Trust & Respect Atmosphere of trust, openness, and financial transparency.

  • Continuous Improvement: Team-focused shared learning and required ongoing training accelerate competence and improvement.

What is LEAN

Job Order Contracting Training – Collaborative Lean Construction

Collaborative LEAN Job Order Contacting (TM) requires significant change management, learning, and leadership.   The results, consistent on-demand, on-time, on-budget, quality construction are well worth the effort.

Job Order Contracting Training

4BT training comes in all forms and levels, introductory to advanced, on-site to virtual.

Our trainers are skilled JOC professionals with decades of successful experience delivering and supporting LEAN best management practices.

Consistent with any well managed JOC Program, our  training is done in a supportive.  Mutual respect, information sharing, and continuous improvement are all foundational to LEAN structures and central to optimal outcomes.

We integrate lectures with visual aids and hands-on exercises.   Coaching and peer mentoring are also key to becoming proficient with LEAN processes.

Whether you are new to JOC or simply looking to hone your skills, we can design the right training program you and your team.

  • Introduction to Job Order Contracting
  • Introductory Job Order Contracting
  • Advanced Job Order Contracting
  • Partnering and Collaboration
  • Line Item Estimating

The Simple Framework for Efficient and Open Job Order Contracting

What is LEAN

The OpenJOC Framework(TM) embeds core LEAN integrated project delivery and superior procurement practices to provide real property owners with optimal strategies strategy for consistently delivering on-demand, quality repair, renovation, and minor new construction projects on-time and on-budget.

Four BT, LLC (4BT) was created to met a clear needs for a superior mousetrap with respect to facilities stewardship.   Virtually any real property owner with requisite levels of leadership, competency, and support can virtually assure optimal project performance.  And accomplish this within an industry were less than 20% of ALL projects are delivered on-time, on-budget, and/or satisfactorily.

“4BT guides organizations to help achieve accelerated improvement of their facilities repair, renovation, and construction outcomes through the development  of a culture focused upon customer value,  supported by proven LEAN processes, actionable and robust data, enabling cloud technology, and ongoing training.” 

  1. Learn more about LEAN integrated project delivery.
  2. Better leverage the many stakeholders and disparate service providers that are involved in facilities repair, renovation, maintenance, sustainability, and minor new construction.
  3. Clearly define roles, expectations, and manage inter-dependencies.
  4. Understand the value and role of a common data environment.
  5. Recognize the role of technology as an enabler, but not a end in itself.
  6. Benefit from local, long-term mutually beneficial relationships.

Price Index Up 2.9% – Past Twelve Months – October 2018

Producer Price Index up 2.9% over past twelve (12) month period, and 0.6% for October 2018.

Producer Price Index 2018 October

via Four BT, LLC – LEAN Construction Delivery Solutions and Verifiable, Locally Researched Construction Cost Data.

 

Job Order Contracting Made Simple and LEAN with 4BT!

Real property owners and their services…. leverage Job Order Contracting made Simple and LEAN!

Job Order Contracting Made Simple and LEAN

Job Order Contracting can consistently deliver quality projects on-demand, on-time, and on-budget…

  1. IF designed, deployed, and properly managed using an open, transparent process, locally researched detailed cost data,
  2. IF initial and ongoing training is required,
  3. IF every job order is review by an the owner and/or independent resources, and
  4. IF enabling cloud technology embeds core LEAN processes.

Remember, however, that all owner-managed JOC Programs and JOC Cooperatives are NOT the same.


Any organization can Improve Facilities Repair & Renovation Success… Beginning Today.    

All the tools, training, information, processes, and support are available to procurement and facilities management teams that want to consistently deliver quality, on-demand renovation, repair, and minor new construction project on-time, and on-budget

LEAN Job Order Contracting(TM) for Public Institutions

Stop the waste, the worrying, and the hassles commonly associated with facilities repair, renovation, and minor new construction

The ability to streamline construction delivery, reduce variation, and improve overall outcomes for all participants and stakeholders has existed for decades.

Design-bid-build just doesn’t provide maximum efficiency, nor have some JOC implementations with excessive fees, poor management and oversight, and/or that rely upon “national average cost data” (with or without various localization cost factors).

The key to streamlining and improving renovation, repair, and construction delivery is to boost early and ongoing communication and cooperation across owner procurement, facilities management, building users, AEs, and builders.

The consistent delivery of efficient and successful construction projects is virtually impossible without owner leadership and competency.   Real property owners that take their roles as stewards of the built environment in earnest and support change management.

The availability of LEAN OpenJOC Job Order Contacting(TM) solves construction productivity problems, ends costly delays, and delivers required outcomes at a reasonable cost.

The primary reason for waste in construction is lack of visibility into project scope and lack of robust processes that mitigate variation.   Traditional construction delivery, and even Job Order Contracting deployed inappropriately, does little to resolve these issues.

LEAN Job Order Contracting deployed via the OpenJOC FrameworkTM enables the following:

Best Value Focus

Construction services decision-making accomplished collaboratively among technical teams, procurement, building users and builders.

All the tools and processes in place to avoid issues and excessive costs common to other traditional procurement and execution of construction services.

Compliance

ALL proposals submitted by JOC contractors can be audited via the 4BT ICRTM Informal Compliance Review process and associated written report.  Formal compliance reviews FCRTM are also available.   EDGAR compliance is also in place for those owners using Federal funds (see Allied States Cooperative JOC Construction Services).

Think Locally

Locally researched detailed line item cost data is the foundation of any successful JOC Program.

Local construction service providers are most familiar with the supply, economic, and technical challenges of your location.   Also consider smaller firms that have less capital-intensive overhead that would otherwise be an additional owner expense.

Your Needs Matter

Sure, construction services aren’t “cookie cutter” and can be complicated.  That’s exactly why you want skilled professionals working with you collaboratively in a fully financially transparent manner within a and the support of a consistent LEAN JOC Program FrameworkTM.

Price Guarantee (for standard products)

Annual pricing for procured products will not increase more than 3% annually and/or consumer price index (CPI), whichever is lower.   We are also a CSI Master-format licensee.


Additional Information

JOC Strategic Needs Analysis

JOC requires a focus upon change management for many/most organizations.

  • Does your organization have a backlog of millions of dollars in renovation, repair, and minor new construction projects?
  • Does your staff have requisite levels of leadership and facilities management competencies?
  • Can your team work collaboratively with builders and establish long-term, mutually beneficial relationships?

JOC Review/Audit

Regular job order contracting audits are critical for any successful JOC Program.  In fact, every JOC Project should be reviewed in detailed by the owner.  Continuous improvement is central to JOC and LEAN practices and improvement is impossible without actionable information.   As the saying goes… “you can’t manage what you don’t measure.”

Processes, procedures, and outcomes should be monitored and independently audits for compliance and value to the organization.   For example, best in class JOC Cooperatives, require a third-party review of every contractor’s JOC proposal.

Initial and Ongoing Training

Introductory, Advanced, and Refresher Training should be required for all JOC Program participants.  This training is provided hands-on and virtually.

Use Locally Researched Line Item Unit Price Cost Data

Job Order Contracting cost data, the unit price book, is a required element of any JOC Program.   Locally researched cost data provides multiple advantages over the use of “national average price books” and/or localization factors or “cost indexes”.   Furthermore, a JOC UPB should not be “static” (be the same price book throughout the duration of a multi-year JOC) and updated solely via a generic economic factor.   Labor costs should be updated quarterly, and line items added as appropriate.  Lastly, UPBs should not include an excessive number of line items. 30,000-60,000 line items are sufficient for the majority of JOC Programs.   Having hundreds of thousands of line items can contribute to confusion, excessive costs, and project delays.

JOC Software

Technology is an enabler.  JOC software, cloud-based and embedding LEAN JOC processes supports consistency and lower cost delivery.  Using generic software, ERP software, IWMS software, or spreadsheet, provides “generic results.”

Remember, All JOC Programs are not the same!

Learn more…

Total Cost of Ownership Life-cycle Asset Management – Facilities and other Physical Infrastructure

Efficient life-cycle total cost of ownership management requires the application of LEAN processes and collaborative construction delivery methods.   As such, Owner competency and leadership is also a core requirement.

 

The follow graphics outline the relevant knowledge domains, phases, tools, data environments, and more.

LEAN FACILITIES MANAGEMENT

 

 

 

 

All the tools and support are readily available for owners, architects, engineers, builders, and oversight groups that are ready to support change management and consistently deliver on-demand quality facilities repair, renovation, sustainability, maintenance, and new construction and meet their stewardship responsibilities.

Job Order Contracting Solution

OpenJOC BMPs

Learn more?

Total Cost of Ownership = Design, Construction, Operations, Maintenance, Renovations, Adaptations, Upgrades, Disposal/Recycling.

Job Order Contracting – Recommended Best Practices

The following, Job Order Contracting – Recommended Best Practices, have been compiled from numerous independent third party audits of JOC Programs as well as decades of experience.


All the toolstraining, information, processes, and support are available to ANY procurement and facilities management team that wants to consistently deliver renovation, repair, and minor new construction project on-time, on-budget, and to everyone’s satisfaction.

We hope you benefit from the following information.


  1. Conduct a strategic review of your organization’s facilities/infrastructure repair, renovation, maintenance, sustainability, and minor new construction requirements, including a gap analysis of current process and issues and desired outcomes as well as current and required resources.    A policy establishing JOC program purpose is central to providing guidance to internal and external participants and oversight groups.
  2. Create a detailed, written JOC Operations Plan / JOC Execution Guide that outlines all roles, responsibilities, information requirements, deliverables, metrics, etc.      Lack of formal written policies, procedures or guidelines is the primary reason for JOC Program failure and/or inconsistencies in project management and documentation, and compliance.
  3. Assure fair owner/contractor negotiations occur for all individual projects in order to assure quality and timely work at fair and reasonable prices.
  4. Establish processes and guidelines for evaluating and negotiating Contractor Job Order Contract proposals.
  5. Place limits on the use of non-prepriced line times.  For example, only 10% of the total value of any individual JOC Project can result from the used of non-prepriced line items.
  6. ALL Contractor proposals/estimates should be reviewed in detail, on a line item basis, by the owner and/or an owner’s designated representative.
  7. ALL Contractor proposals/estimates over a specified dollar level (for example, $150,000) should require that an independent owner estimate be created for comparison to the contractor estimate.
  8. ALL, or a minimum a statistically valid sample number, contractor proposals should be should be reviewed by an independent third party for compliance with JOC Program requirements.
  9. Require that any Scope of Work has sufficient detail to enable a contractor to create a detailed line item estimate.  A joint site visit should be done for every project.  Poor performance at this stage is a primary cause for cost overruns, change orders, and lack of satisfaction.
  10. Assure ALL stages, approvals, documents, and document packages are sent and received in a timely matter, and that NO WORK is begun until these requirements are met.
  11. DO NOT use JOC simply as a procurement method to bypass the lengthy traditional procurement processes.  JOC is a LEAN construction delivery method and should NEVER be used to approve projects that otherwise would not have been approved, JOC should not be used to simply approve projects quickly, regardless of size or type, importance, etc.
  12. Assure that JOC is appropriate for the associated project.
  13. Deploy a process and associated technology to guard against fraud or other forms of impropriety.   For example, a JOC technology with robust document management capability should be used.  Important features in this regard include document access and edit privileges management and control, system monitoring/auditing of all system access and associated changes, and associated user management.
  14. Implement regular full JOC Program audits, performed by an independent third party.
  15. Regular and ongoing owner inspections of work in progress and upon completion.  Oversight, without excessive management and control is vital.
  16. Assure Program, Project, Estimate, Document, Contractor, Subcontractor, UPB, and Coefficient Management are all part of the JOC process and technology.
  17. Develop and maintain a formalized comprehensive monitoring and reporting system is in place.  Items to be following include…timelines for all JOC Program and JOC Project Phases, budgetary items/levels, contractor performance, appropriate documentation and approvals, etc.
  18. Owners MUST be directly involved in the day-to-day JOC process.  Excessive reliance on third party JOC consultants sets the stage for potentially inappropriate activities to take place and also defeats the purpose of early and ongoing communication between owners and contractors.   The latter is a basic tenant of LEAN construction.
  19. Use a locally researched unit price book versus a “national average” reference cost book and associated localization factors.

Job Order Contracting - Recommended Best Practices

Comprehensive, Efficient Capital Reinvestment Prioritization and Execution for Public Sector Real Property Portfolio Repair, Renovation, and Minor New Construction – A Robust Data-driven Approach

Comprehensive and efficient capital reinvestment prioritization and execution for public sector real property portfolio repair, renovation, and minor new construction requires change management.

Current antagonistic and ad-hoc methods have proven to be extremely wasteful.  Day to day processes must be altered to focus upon BEST VALUE, COLLABORATION, FINANCIAL TRANSPARENCY, and DATA-DRIVEN DECISION MAKING.

DEMING2018LEAN

Improve Public Sector Facilities Stewardship

With appropriate Owner LEADERSHIP and COMPETENCY poor productivity endemic to the AECCO sector can be a thing of the past (AECOO – Architecture, Engineering, Construction, Owner, Operations).

LEAN construction delivery methods have proven to consistently delivery quality repair, renovation, and new construction projects on-demand, on-time, on-budget and to everyone’s satisfaction.

Learn more about LEAN Construction Delivery…

Drive Productivity Improvement for Facilities Repair, Renovation, and Construction Today!

It’s time more organizations use a facilities repair, renovation, and construction model that is proven to deliver radical transparency, provides adaptability, drives innovation, and consistently assures customer satisfaction, performance, as well as significant benefit for all participants.

Focus upon integrated processes and tools that optimally coordinate multiple teams to drive best value outcomes with the OpenJOC Framework(TM) operating construction delivery model.    It is simple to understand, and allows for incremental change management appropriate to any organization.

Let’s face facts BIM has not measurable improved facilities management productivity.  Sure, a very small fraction of the AECOO sector achieves benefit from BIM, but at a relatively high cost and not without the associated used of proven LEAN processes.

Join others who consistently deliver 90%+ of facilities repair, renovation, and construction projects on-time, on-budget, and to everyone’s satisfaction.

The path is clear!

  1. Adopt prove LEAN construction methods, including a common data environment (CDE) …example, locally researched line item unit price cost data.\
  2. Go paperless and leverage collaborative cloud technology.  Assure, however, you have robust Document Management, complete with document check-in/out, read/edit levels, etc.
  3. Required initial and ongoing training for ALL internal and external participants and stakeholders.
  4. Drive continuous improvement by developing an atmosphere of mutual respect/trust and shared risk/reward.

LEAN OpenJOC Circle

 

 

 

Job Order Contracting Toolkit for Public Sector Facilities Owners & Managers

The 4BT Job Order Contracting Toolkit provides everything you need to consistently deliver quality repair, renovation, maintenance, sustainability, and minor new construction projects… on-demand, on-time, in compliance, and to everyone’s satisfaction.

Key  benefits of the 4BT Job Order Contracting Toolkit for Public Sector Facilities Owners & Managers

  1. All of the tools, products, and services are available to you without high administrative fees based upon the value of your construction projects or other excessive fees.
  2. Accomplish multiple projects through a single job order contract mechanism.
  3. Our goals it to enable your organization to be self-sufficient and engage in continuous improvement, using proven LEAN processes.
  4. Deliver quality projects in weeks versus months, or months versus years.
  5. Improved project scope definition, cost visibility, and cost visualization.

Job Order Contracting Solution

Contact us to learn…

  1. How to set up a JOC Program (Owner-managed JOC Program)
  2. How to easily migrate from your current JOC Program to the LEAN OpenJOC Solution(TM)
  3. Deploying JOC via the Cooperative Purchasing Group Alternative
  4. How to Design, Develop, Market, Manage, and Continuously Improve your JOC Program.
  5. JOC & LEAN Best Management Practices, including Key Performance Indicators.

Construction Delivery Change Management

Owners, contractors, engineers, and designers have the opportunity to consistently deliver quality repair, renovation, and new construction projects on-demand, on-time, on-budget to the satisfaction of all participants and stakeholders.

Unfortunately, most projects are late, over budget, and/or burdened with waste due to the use of traditional and/or outdated construction delivery methods such as design-bid-build, design-build, etc.

Alternative construction delivery methods such as Integrated Project Delivery, IPD, and LEAN Job Order Contracting(TM) virtually assure measurably improved construction outcomes.

The primary reason why all owners, designers, and builders don’t use these alternative construction delivery methods is that they require change management.   Day-to-day processes differ significantly with these newer methods, and many within the AECOO sector have issues  dealing with the required changes (AECOO- Architecture, Engineering, Construction, Operations, Owners).    Deficiencies in leadership and specific areas of technical competencies are the strongest barriers.

Alternative LEAN construction delivery methods, as exemplified by the OpenJOC Framework(TM) require the following:

  1. A common data environment (CDE)>  This include a comment set of terms and definitions, easily understood by all partiipants, and a a locally researched detailed line item database organized using CSI MasterFormat – 50 division.
  2. Strategic gap analysis and associated planning>  Understanding the current state of your organization and desired goals over time may sound obvious, yet many/most organizations have not objectively, quantitatively, and thoroughly engaged in this area.
  3. Fully documented written LEAN processes> Lean processes focus upon and drive BEST VALUE outcomes by leveraging transparency, collaboration and the consistent use of robust workflows.  Associated procurement and  construction documents and workflows, as well as associated written Operations Manuals and/or Execution Guides are core requirements.
  4. Mutually beneficial long term relationships>All parties benefit from long term relationships, in terms of quality, efficiency, and knowledge retention.   These relationships can only develop within an environment of mutual respect and trust, shared risk/reward, and continuous improvement.
  5. Supporting Technology>While technology should never be the driver, it can help to support consistent, lower cost deployment of processes as well as monitoring and continuous improvement.   Purpose-build cloud technology plays an important role in supporting LEAN alternative construction delivery methods.  In addition to a common environment,  robust document management (check-in/check-out, permissions and permission levels, access monitoring…) is required and both email and paper documents should be minimized.

 

via Four BT, LLC – 4BT guides organizations to help achieve accelerated improvement of their facilities repair, renovation, and construction outcomes through the development of a culture focused upon customer value, supported by proven LEAN processes, actionable and robust data, enabling cloud technology, and ongoing training.   www.4bt.us

 

Job Order Contracting – The LEAN Way!

Job Order Contracting

LEAN Construction Delivery (repair, renovation, maintenance, sustainability, new construction) consistently drives quality, on-time, and on-budget outcomes.Exclusively available LEAN Construction Delivery Framework via the 4BT OpenJOC Solution(TM).

  • Financial transparency via locally researched detailed unit prices organized using CSI Masterformat
  • A fixed priced, lump sum projects
  • Fast track procurement
  • On-demand, responsive construction services via vetted contractors
  • Compliant
  • Mutually beneficial to all participants and stakeholders
  • Shared risk/reward
  • Initial and ongoing training
  • Continuous improvement
  • Quantitative Key Performance Indicators (KPIs)
  • Collaborative cloud technology – Program-Project-Estimate-Contractor-Subcontractor-Document-Team Management, BIM integration, Issue/Task Management, and more…
  • Performance-based – contractor work volume driven by performance
  • Long-term relationships
  • Proven and available to organizations of any size

Learn more…

Four BT, LLC – “4BT guides organizations to help achieve accelerated improvement of their facilities repair, renovation, and construction outcomes through the development of a culture focused upon customer value,  supported by proven LEAN processes, actionable and robust data, enabling cloud technology, and ongoing training.” 

Job Order Contracting Solution

It’s important to understand that Job Order Order Contracting,JOC, is not simply a procurement method.    Job Order Contracting, when properly understood and deployed, is a LEAN construction delivery method that minimizes waste and improves overall construction outcomes.

The LEAN OpenJOC Framework(TM) is a proven method for developing, delivering, and sustaining consistent planning and execution of quality, on-time and on-budget repair, renovation, and new construction projects.

It includes required products, processes, information, and services to enable the integration, collaboration, and leverage of multiple internal and external teams and areas of expertise.

The OpenJOC Framework was created to more efficiently leverage the combination of the collaborative Job Order Contracting construction delivery methodology with LEAN processes within a fully transparent environment.  Focus is upon outcomes and enabling all participants to be self-sufficient within an atmosphere of mutual trust, shared risk/reward, and continuous improvement.

This is a new way of conducting day-to-day activities within the Architecture, Engineering, Construction, Operations, Owners, AECOO sector, that optimizes the overall strategy outcomes for all participating organizations.  It is not only an improvement over traditional design-bid-build(DBB) and design-build(DB) construction delivery, but also superior to alternative forms of Job Order Contracting.

It achieves this goal by building competencies, including owner leadership, and focusing upon delivering mutual benefit, for all participants. There is no favoring of owners versus contractors, and counterproductive used of intermediary third parties and/or JOC consultants on a long term basis.

The OpenJOC Framework is a scale-free architecture, both in process and technology, enabling any size of organization to gain significant measurable benefit. Processes that don’t add value are removed in favor of clear definition of roles, responsibilities, stages, rules, and metrics.

www.4BT.US … Efficient LEAN Construction Delivery Solutions.

On-Demand, On-time, On-budget, Quality Construction Services – LEAN Job Order Contracting(TM)

LEAN OpenJOC(TM) Job Order Contracting provides quality, low-cost construction services to Educational, Municipalities, State and Federal Governmental accounts using LEAN best management practices, locally researched unit unit price books, and best-in-class training and support services.

A Job Order Contract (JOC) is a long-term indefinite delivery, indefinite quantity contract for construction services. Renovation, repair, maintenance, and minor new construction services are  delivered on an on-call basis through firm, fixed price delivery orders based upon pre-established unit prices.  (Note: A “national average price books” with or without “localization factors” do not provide the cost accuracy required to meet the fiduciary responsibility of public sector owners.)

Four BT, LLC was created by an team of experienced JOC professionals to meet the market need for best value, open, transparent, and collaborative JOC solutions.   We can help select the right JOC contract to meet your needs.

OpenJOC Job Order Contracting is a LEAN construction project delivery method that has many important advantages, including:

  • Reducing cost & complexity of multiple project requirements and solicitations
  • Cost-Effective, seamless combination of design, permitting and construction
  • Faster completion times
  • Flexible project scheduling
  • Joint owner-contractor price input & design review
  • Comprehensive locally research unit price books, organized by CSI Masterformat, 50 Division, including labor, material, equipment, and crew details, and line item modifiers!
  • Robust constructor and  subcontractor selection and tracking
  • Scales from single to  multiple locations
  • Compliance with federal, state, and local  procurement & prevailing wage laws
  • Non-adversarial approach
  • Provides a versatile “tool” to reduce backlog of facility projects

 

Leverage OpenJOC Job Order Contacting for multiple types of projects:

  • Facility Repairs and Improvements
  • New Facilities Construction
  • Building Renovations
  • HVAC Upgrades
  • Electrical/Controls Upgrades
  • ADA Compliance
  • Infrastructure Improvements
  • Paving, Curb, and Gutter
  • Installation of Modular Buildings
  • Recreational/Athletic Products & Equipment
  • Asbestos Abatement
  • Communications
  • Roofing
  • Fencing

Who is using JOC Today?

  • Colleges & Universities
  • K-12 Public Schools
  • Multi-Facility Organizations
  • Municipalities
  • County Governments
  • Charter Schools
  • State Agencies
  • Airports
  • Mass Transit
  • Federal Agencies

www.4bt.us

info@4bt.us

What is a construction cost estimate?

Definition of a construction cost estimate:

  1. An approximation of the monetary value for a repair, renovation, new construction, or related project or task at a specified point in time.
  2. An approximation of the monetary value of a project, task, or operation related to installation, repair, alternation of a physical structure and/or piece of equipment/physical component.
  3. A product of a defined cost estimating process that yields the intended level of detail for a project, task, and/or operation.
  4. A single total monetary value which generally has multiple associated and clearly defined identifiable component values, commonly known a detailed unit price line items.

Cost overruns due to errors and/or omissions can be avoided with a credible, reliable, and accurate cost estimate.  A valid construction cost estimate is one that is verifiable, results from a combination of the experience of the estimator, and based upon locally researched line time unit prices and/or database.

An estimator is the professional who prepares cost estimates. There are different types of estimators, whose title may be preceded by a descriptive adjective, such as building estimator, or electrical estimator, or chief estimator. Other professional titles may also prepare estimates or contribute to estimates, such as quantity surveyors, cost engineers, project managers, etc.

via 4BT.US – LEAN Construction Delivery Solutions

construction cost estimate

Select the Largest or the Best Value Job Order Contracting Solution Provider…It’s your choice.

As a public sector real proper owner you can select the Largest or the Best Value Job Order Contracting Solution … It’s your choice.     

Every public sector facilities management can now deploy a BEST VALUE Job Order Contracting Solution that is open, transparent, collaborative, compliant, and in concert with their fiduciary responsibilities.

The OpenJOC(TM) LEAN Job Order Contacting Solution provides all of the following features and benefits….and does so without excess administration fees tied to construction volume…  does your current JOC vendor?

Manage – JOC Programs, JOC Projects, JOC Contractors, JOC Subcontractors, Tier 2 Subcontractors, JOC Teams, JOC Estimates, JOC Forms, JOC Documents (multi-format), JOC Reports, Buildings, Assets, Issues, Tasks, and more!

Best Value Job Order Contracting Solution Provider

JOC Programs – Create and Manage multiple JOC Programs including budgets, active years, assigned contractors, progress, co-efficients, unit price books, and more!

Manage Multiple Joc Programs

Best Value Job Order Contracting Solution

JOC Projects – Create and Manage multiple JOC Projects and associated JOC estimates and more!

Projectsx

JOC Contractors – Create and manage JOC Contractors.  Assign contractors from a prepared list.  Assign status, and more!

Best Value Job Order Contracting Solution

JOC Subcontractors – Create and manage JOC Subcontractors.  Assign subcontractors from a prepare list.  Assign status, and more!

JOC Tier-2 Subcontractors – Create and manage Tier-2 JOC Subcontractors.  Assign Tier-2 subcontractors to subcontractors and projects.  Calculate percentages of work, and more!

JOC Teams – Create and manage JOC teams by assigning roles, inviting team members, and establishing who can see what, and who can edit, or only view what… and more!

JOC Unit Price Books – Manage single or multiple locally researched unit price books and single or multiple JOC coefficients.

JOC Estimates – Create and manage JOC estimates, included owner estimates/independent government estimates, contractors estimates, and subcontractor estimates from a detailed, locally researched unit price book and more!

Buildings – Geo-locate buildings

Best Value Job Order Contracting Solution

Documents – Full document management.  Unlike other systems, users can “check-out” and “check-in” documents per their authorization level.   While a document is check-out, others are aware and can not modify it.

Security – In addition to multiple hosting sites, users can track system access and system access times/duration/frequency.

Best Value Job Order Contracting Solution

Best Value Job Order Contracting Solution

Learn more… info@4bt.us

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Understanding Job Order Contracting & Efficient LEAN Facilities Repair, Renovation, and Construction

It’s important to recognize that Job Order Contracting (JOC) is not simply a way to speed projects through procurement “red tape”.  In order to obtain the major benefits of JOC* the following are required.

  1. Change management – Moving from traditional ad hoc day to day practices to robust workflows based upon proven LEAN processes.
  2. Owner leadership and competency – JOC is a collaborative process, however, owners provide leadership.  With direct owner involvement, for example the excessive long-term reliance upon JOC contractors to “manage” the JOC,  the program will not deliver a BEST VALUE outcome.
  3. Ongoing process – All parties must understand that JOC is an adaptive process with a focus upon continuous improvement.
  4. Actionable Information – A common set of terms and definition and a locally researched detailed line item unit prices JOC construction cost database (versus a “national average” reference cost book with or without cost factors or other economic indices).
  5. Enabling technology – While not a driver, appropriate technology can help to reduce deployment costs, improve consistency and productivity, as well as provide a mechanism for JOC Program oversight.  Purpose built cloud technology should included FULL document management capability (document check-in/check-out and change monitoring), system access monitoring, as well as program, project, estimate, contractor/subcontractor, and UPB management.

*JOC Benefits – Consistent delivery of on-demand, quality projects repair, renovation, maintenance, sustainable, and minor new construction projects on-time, on-budget, and to the satisfaction of all participants and stakeholders.

DEMING2018LEAN

Communicating and testing new techniques, as well as a consistent representation of Job Order Contracting are extremely important.  Motivating and sustaining commitment with respect to ALL participants, internal and external, and doing so with targeted and ongoing training and messaging appropriate to the individual and  professional area are equally vital.

Keep terms and definitions consistent and simple, by using an easy-to-understand common data environment (CDE).  A JOC unit price book (UPB) is the key element in this regard.  It’s important to note, however, that all JOC UPBs are not the same.   Do your homework.   Has the UPB been locally researched for labor, material, and equipment, or is it simply a national average reference cost book using a location factor or some sort as an attempt to provide some level of localization?   Factors are simply not accurate enough.   Does the UPB contain line item modifiers to account for quantities and/or work methods?   Line item modifiers are a “must” for JOC.   Without locally researched cost data and/or line item modifiers, estimate errors in the range of 30%-40% are likely.    Is the unit price book updated regularly for labor costs and totally each year labor, equipment, and material, or does it simply apply an economic adjustment factor, such as the “ENR construction cost index”(TM).  Again, the application of  “generic factors” easily introduces significant errors in construction cost estimates.   The 4BT OpenJOC(TM) Unit Price Book and the OpenJOC Approach(TM) assure that the JOC UPB is locally researched, updated appropriately, includes line item modifiers, and uses industry standard terms and definitions, written in plain English.

Job Order Contracting Solution

The 4BT OpenJOC LEAN process improves culture, process, level of participant involvement, communicates organizational values, and delivers best value.. all with a focus upon client-defined desired outcomes.

OpenJOC(TM) LEAN Job Order Contracting was specifically developed to enable any organization to consistently deliver quality repair, renovation, and minor new construction projects on-time and on-budget, while capitalizing upon the experience and benefit of long-term internal and external mutually beneficial relationships, ongoing training, and focus upon continuous improvement.

Learn more… info@4bt.us

Roof Inspection Checklists

Roof Inspection Checklists can be automated and linked to detailed cost models for budgeting and project estimation.   Locally researched cost data is optimal for this purpose versus the use of “national average” reference cost databases and associated location factors.

Roof Inspection Checklists

Roof Inspection Checklists

Roof Inspection Checklists

Roof Inspection Checklists

Additionally, the use of proven, robust, LEAN construction delivery methods, can assure consistent, on-demand, project delivery with on-time, on-budget, and satisfaction for all all participants and stakeholders.

Job Order Contracting Solution

How we help you achieve your goals.

“4BT helps organizations achieve accelerated improvement of their facilities repair, renovation, and construction outcomes through the development  of a culture focused upon customer value,  supported by proven LEAN processes, actionable and robust data, enabling cloud technology, and ongoing training.” 

info@4bt.us

Facilities Electrical Equipment Maintenance Test Frequency

Facilities Electrical Equipment Maintenance Test Frequency

The 2011 American National Standards Institute / International Electrical Testing Association (NETA) Maintenance Testing Specifications ANSI/NETA MTS-2011 has been used as the guide for all Electrical Testing procedures. By reference, the ANSI/NETA MTS-2011 requirements for Frequency of Maintenance Tests have been included for the performance of maintenance on all electrical systems.

Frequency of Maintenance Tests

NETA recognizes that the ideal maintenance program is reliability-based, unique to each plant and to each piece of equipment. In the absence of this information and in response to requests for a maintenance timetable, NETA’s Standards Review Council presents the following time-based maintenance schedule and matrix.

One should contact a NETA Full-Member company for a reliability-based evaluation.

The following matrix is to be used in conjunction with NETA’s Frequency of Maintenance Tests table. Application of the matrix is recognized as a guide only. Specific condition, criticality, and reliability must be determined to correctly apply the matrix. Application of the matrix, along with the culmination of historical testing data and trending, should provide a quality electrical preventive maintenance program.

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Four BT LLC – Efficient LEAN Solutions for Facilities Repair, Renovation, and Minor New Construction

“4BT guides organizations to help achieve accelerated improvement of their facilities repair, renovation, and construction outcomes through the development  of a culture focused upon customer value,  supported by proven LEAN processes, actionable and robust locally researched detailed line item cost data, enabling cloud technology, and ongoing training.” 

 

Facilities Maintenance Checklist and Procedures

Preventative maintenance is critical to facilities occupant health and safety, as well as meeting an organization’s fiduciary responsibilities.  How do your preventative and routine facilities maintenance checklists and procedures compare to the following?

via Four BT, LLC – 4BT enables owners to consistently deliver quality facilities repair, renovation, and minor new construction projects on-demand, on-time, and on-budget.

Job Order Contracting Solution

 

ARCS-BAR-01-06M Frequency: Semi-annually
Security Bollards/Barricade
Application: This standard card applies to automatic hydraulic security Bollards/Barricades found at driveway entrances, and other areas where vehicular traffic must be controlled. Special Instructions: 1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. Review manufacturer’s instructions. 3. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 4. De-energize, lock out, and tag electrical circuits. 5. This work should be scheduled at non-peak hours. 6. Notify affected personnel before performing PM (alarmed or security entrances). 7. Post “out of service” signs and/or barricades, as appropriate. Check points: 1. Check that Bollards/Barricade extend to full height. 2. Check that Bollards/Barricade retract to full depth. 3. Check Bollards/Barricade for exterior damage. 4. Check and clean sump pits and pump. 5. Check that Bollards/Barricade fasteners are tight. 6. Check Bollard/Barricade safeties (proximity, Photo, infra red, pressure etc) 7. Check Bollard/Barricade activation devices for proper operation (auto/manual/emergency) 8. Check Bollard operation under no power. 9. Inspect electrical power panel. Check electrical connections and wiring for loose or overheated conditions. 10. Inspect control panel for loose connections. 11. Check that traffic light functions, change lamps and clean lenses every 12 months. 12. Check hydraulic unit fluid level and pressures/ change fluid per manufactures recommendations. 13. Check hydraulic unit fluid connections, pump, piping and hoses for damage and leaks. 14. Clean motor and assembly. 15. Check the drive motor amperage against nameplate. 16. Clean drive mechanism compartment. 17. Inspect Bollard/Barricade coatings, decals and paint. 18. Check that all placards and warnings signs are posted. Recommended Tools, Materials, and Equipment: 1. Tool Group A

 

ARCS-DAV-01-01Y Frequency: Annually
Davits
Application: This standard applies to davits, structures typically used to lower things over an edge. This standard is not intended to address all fall protection related equipment. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. All fall protection equipment is required by OSHA to be checked prior to each use. 3. This section does not address powered man-lifts, harnesses, self retracting fall limiters, shock absorbers, and other related fall protection equipment that falls into the above requirements. 4. Any and all personnel involved in the use or maintenance of fall protection or who may, in the course of their work, be present on any elevated surface without a guard rail are required to have regular training in fall protection safety. Conformance includes but is not limited to ASME, ASME A 120.1, IWCA I 14.1, OSHA 1910.66, CALOSHA, AISC, AWS and local code requirements. 5. Visually inspect for corrosion. Verify all components are securely mounted. 6. Check bolt torque. Check Points: See Special Instructions. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic.

ARCS-DOR-01-06M Frequency: Semi-annually
Door, Power Operated
Application: This standard applies to warehouse or large overhead rolling doors. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Inspect general arrangement of door and mechanism, mountings, standards, wind locks, anchor bolts, counterbalances, weather stripping, door sweeps etc. Clean, tighten, and adjust repair as required. 2. Operate with power from stop to stop and at intermediate positions. Observe performance of various components, such as brake, limit switches, door operating speed, motor, gear box, etc. Clean and adjust as needed. 3. Check operation of safety edges, stops, electric eye, treadle, or other operating devices. Clean and make required adjustments or repairs. 4. Check manual operation. Note brake release, motor disengagement, functioning or hand pulls, chains sprockets, clutch, etc. 5. Examine all wiring, motor, starter, push button, etc., blow out or vacuum if needed. 6. Inspect gear box, change or add oil as required. 7. Perform required lubrication. Remove old or excess lubricant. 8. Clean unit and mechanism thoroughly. Touch up paint where required. 9. Clean up and remove all debris. Recommended Tools, Materials, and Equipment: 1. Standard Tools-Basic 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

  1. Cleaning Materials. Consult the MSDS for hazardous ingredients and proper PPE.

ARCS-DOR-02-03M Frequency: Quarterly
Door; Hydraulic, Electric or Pneumatic Operated
Application This standard applies to entrance doors operated by sensors or switches (i.e. handicap access doors). Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Set suitable barriers at the entrance and exit of the door. Prevent obstructions from impeding pedestrian traffic around the work area. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Check alignment of door and mechanism. Inspect mountings, hinges, mats, and trim, weather stripping, etc. Replace, tighten, and adjust as required. 2. Operate with power, observing operation of actuating and safety mats, door speed, and checking functions. 3. Check manual operation. 4. Inspect power unit, lubricate and tighten lines as required. 5. Check operation of control board relays, clean, replace, adjust contacts as required. 6. Inspect door operating unit, tighten lines, and adjust as required. 7. Clean and lubricate door pivot points. 8. On pneumatic or hydraulically operated door operators, check for correct operating pressures per manufacturer’s instructions. 9. Clean up and remove all debris from work area. Recommended Tools, Materials, and Equipment: 1. Tool Group B 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

ARCS-DOR-03-06M Frequency: Semi-annually
Door, Manual, Overhead
Application 1. This standard applies to manually operated overhead doors. These doors normally range in size from 7 to 24 feet wide by 7 to 20 feet in height. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. If the door is equipped with intrusion alarms, notify the appropriate person before operating. 3. Schedule maintenance on these doors so that it does not interfere with loading dock operations. 4. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times. Check Points: 1. Inspect general arrangement of door and mechanism, mountings, standards, wind locks, anchor bolts, counterbalance, weather-stripping, etc. Clean, tighten, and adjust as required. Make minor repairs as needed. 2. Inspect cables for frayed or broken strands or excessive rusting. 3. Inspect winding drum for tightness and proper tracking of cables. 4. Manually raise and lower door, noting that door tracks evenly and action of break release, functioning of hand pulls, chains, sprockets, clutch, etc. 5. If equipped, inspect gearbox; change or add oil as needed. 6. Perform required lubrication. Remove old or excess lubricant. 7. Clean unit and mechanism thoroughly. Touch up paint where needed. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic 2. Rust inhibitor and paint. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Grease gun, oil, and grease 4. Ladder constructed according to OSHA/ANSI standards. Check ladder for defects. Do not use defective ladders.

ARCS-DOR-04-06M Frequency: Semi-annually
Door, Manually Operated Entrance
Application This standard applies to manually operated entrance doors, hinged and sliding type. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Set suitable barriers at the entrance and exit of the door. Prevent obstructions from impeding pedestrian traffic around the work area. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Hinged Doors a) Inspect the frame and supporting structures. b) Inspect hardware; hinges, latch keeper, lock, etc. Apply graphite where needed, wipe off excess. c) Inspect glass, putty, or retaining pieces. Correct any deficiencies. d) Operate door to observe functioning of check. Adjust and service as needed. e) Check opening/closing resistance pressure and speed. f) Touch up paint as needed. g) Clean up and remove all debris from work area. 2. Sliding Doors a) Center door within track and remove, start by lifting up to remove from bottom track first. b) Clean out track of any debris. c) Inspect hardware; rollers, track etc. Correct any deficiencies. d) Return door to track, start by inserting door into bottom track first. e) Operate door to observe function. f) Check opening/closing resistance pressure and speed.

  1. g) Touch up paint as required. h) Clean up and remove all debris from work area. 3. Revolving Doors a) Remove obstructions and clean out track. b) Fold door. Note action and freedom of motion. c) Inspect locking device, adjust as needed. d) Clean pivot points and apply graphite. e) Inspect felt or rubber seals. f) Set the emergency fold pressure on the door to the manufacturer’s specifications. g) Touch up paint as required. h) Clean up all debris from work area. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Graphite. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Clean wiping cloths. 4. Suitable barriers.

ARCS-FPL-01-01M Frequency: Monthly
Fireplace
Application: The purpose of this standard is to perform a cleaning of the fire box and an inspection of the flue, chimney, fire damper, and smoke shelf. This function should be performed once a month, during the time of year that the fireplace is in use. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Do not use any flammable lubricants or solvents. If lubrication is necessary, use only dry powdered graphite. Check Points: 1. Remove loose ash and vacuum inside of fire box (fireplace). 2. Inspect fire brick and mortar joints for cracks or breakage. Repair or replace as necessary. 3. Inspect fire damper, checking for proper operation. 4. Make a visual inspection of the flue and chimney, checking for obstructions. 5. Clean surrounding area. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic 2. Small shovel, dust pan, and broom 3. Vacuum 4. Eye protection, NIOSH/MSHA approved respirator, gloves, and coveralls

ARCS-FPL-02-01Y Frequency: Annually
Incinerator
Application: The work required by this standard applies to incinerators. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If the insulation is known or suspected to contain asbestos, check the building’s asbestos management plan to see it has been tested for asbestos. If it is suspect but has not been tested, have it tested. Manage asbestos in accordance with the plan. Check Points: 1. Thoroughly clean furnace, ash pit, grates, etc. 2. Remove fly ash and soot from flue gas passages. 3. Examine furnace. Replace burned or damaged parts. 4. Inspect for loose, broken, or missing refractory or fire brick. 5. Examine all doors, inspect and/or clean out ports. Make them fit properly and stop any air leaks around them. 6. Check uptakes or connections to stack or chimney. Remove dirt, fly ash scale, etc. 7. Examine dampers for condition and freedom of motion. 8. Examine structure and supports. Look for warped or sagging members, cracks, or other indications of weakness. 9. Check charging chute, frame, cover, etc. Replace broken, missing, or defective parts. 10. Check all instruments, gauges, etc. Test for proper operation. 11. Repair any damaged or missing insulation. If the insulation contains asbestos, refer to Appendix G for the Universal Waste Guide.

  1. Inspect stack or chimney for holes, cracks or deterioration. 13. Inspect spark arrestor or screen on top of stack. Repair holes as necessary or replace. 14. Clean up work area and remove all debris. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Respirator 3. Goggles 4. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

ARCS-LND-01-06M Frequency: Semi-annually
Fountain, Memorial or Decorative
Application: The work required by this standard applies to memorial or decorative fountains. These fountains normally operate during the summer season. They are usually drained and secured in the fall and are reactivated again in the spring. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Fall 1. Drain fountain 2. Remove fountain head(s) 3. Clean scale from head(s) after removing and install cover plate. 4. Clean bolts and spacers. Replace defective bolts as needed. 5. Check and clean fill tube, remove spacer pipe and cap fill tube. 6. Clean overflows and strainers. 7. Check for structural damage. Repair as necessary. 8. Where applicable, add an approved safe winterizing/anti freeze agent to water to prevent freezing. Spring 1. Remove fill tube cap, install spacer pipe and install fill tube. 2. Remove fountain head cover(s) (if applicable) and install fountain head. 3. Clean basins 4. Check for structural damage. Repair as necessary. 5. Remove tags from valves and fill fountain 6. Remove tags from pump and put into service.

  1. Add an appropriate biocide. Recommended Tools, Materials, and Equipment: 1. Standard tools – Basic 2. Hip boots 3. Cleaning equipment and materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Biocide.

ARCS-LND-02-06M Frequency: Semi-annually
Gates and Fences, Security and Access
Application: This standard applies to fences and gates found at driveway entrances, walkway entrances, and other areas where pedestrian or vehicular traffic must be controlled. This classification applies only to those fences and gates where a definite need exists for this type of maintenance to be performed. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. This work should be scheduled at non-peak hours. 6. Notify affected personnel before performing PM (alarmed or security entrances). 7. Post “out of service” signs and/or barricades, as appropriate. Check Points: Gates: 1. Inspect all pivot points, hinges, latches, etc. Apply lubricant where needed, wiping off excess. 2. Check all locking devices. Lubricate as required. 3. Inspect center gate support rollers and lubricate as required. 4. Clean roller track of any debris. 5. Check bolts, fasteners, and mounting hardware. Tighten or adjust as necessary. 6. Check for any obstructions that retard full swing or movement of the gate. 7. Check that shrubs and trees are pruned clear of gate. 8. Check hold open devices for proper operation. Lubricate as required.

Fences: 1. Check posts and corner posts, support guys, and horizontal bars between each support post. 2. Check wire and anchor point; re-stretch and re-anchor if necessary. 3. Inspect fence anchors along the bottom of the fence and at the point where the fence is connected to the post. 4. Treat with galvanized protectant where rust has developed. 5. Apply weed control along entire base of fence. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 6. Check that shrubs and trees are pruned clear of fencing Recommended Tools, Materials, and Equipment: 1. Standard tools – basic 2. “Out of Service” signs 3. Cleaning equipment and materials. Consult the MSDS for hazardous ingredients and proper PPE. 4. Ladder constructed according to OSHA/ANSI standards. Check ladder for defects. Do not use defective ladders. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 6. Wire Stretcher 7. Rust Protectant. Consult the MSDS for hazardous ingredients and proper PPE.

ARCS-LND-03-01Y Frequency: Annually
Lawn Sprinkler Nozzles
Application: This standard applies to all installed sprinkler systems with nozzles. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. This work should be scheduled prior to flushing system. Check Points: 1. Check nozzle and remove corrosion/encrustation. 2. Check for proper spray pattern of nozzles, minimize over spray on surfaces or structures. 3. Replace washers and/or “o” rings if required. 4. Clean unit thoroughly and inspect for freedom of operation. 5. On rotating types: a. Check throw regulator and spring assembly for tightness. b. Lightly lubricate pivot arm and standard bushings. c. Check adjustment screw and retaining spring. 6. Clean up work area on lawn, remove any debris around sprinkler heads. Recommended Tools, Materials, and Equipment: 1. Standard tools – Basic 2. Washers 3. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE).

ARCS-LND-04-03M Frequency: Quarterly
Flag Pole, Electric and Manual
Application: This standard applies to all installed flag poles with electric and manual cabling systems. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Electrical Flag Pole 1. Adjust tension on cable. 2. Adjust spring adjustment cam. 3. Check stops on cable. 4. Inspect manual and automatic controls and adjust if necessary. 5. Lubricate all bearings. 6. Inspect cable, standards, hooks and clasps for wear and replace if necessary. 7. Check power and control wire and connections. 8. Check and test safeties and controls. 9. Inspect access doors and ports including gaskets. 10. Inspect anchor bolts. 11. Inspect pole surface condition. Manual Flag Pole 1. Adjust tension on cable. 2. Check stops on cable. 3. Lubricate all bearings. 4. Inspect cable, standards, hooks and clasps for wear and replace if necessary.

  1. Inspect anchor bolts. 6. Inspect pole surface condition. Recommended Tools, Materials, and Equipment: 1. Standard tools – Basic 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Cleaning materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE).

ARCS-LND-05-06M Frequency: Semi-annually
Lawn Mower and Edger
Application: This applies to gasoline powered, hand operated, rotary mowers and edgers. Maintenance should be scheduled after every 50 hours of operation or twice a season. Routine lubrication should be accomplished by operator. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Change engine oil. Note: Oil should be changed at end of season prior to laying unit up for winter. 2. Service air and fuel filters. 3. Sharpen or replace cutting blade. 4. Clean and gap or replace spark plug. 5. Inspect unit, clean debris from cooling air passages and make other needed adjustments. 6. Clean up work area and remove all debris. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic

ARCS-MHL-01-01Y Frequency: Annually
Manhole, Electrical
Application: This standard applies to manholes which contain electrical distribution cables or other electrical wiring and cabling. Special Instructions: 1. Review the Standard Operating Procedure for “Confined Space Entry.” Follow OSHA guidelines for permitting of entry and atmospheric testing of confined spaces. NEVER enter a confined space without a safety watch. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.” 5. Wear appropriate protective clothing. 6. No open flames or smoking. 7. Use barricade around manhole. 8. Provide ventilation within manhole. Ensure that the exhaust from the gas or diesel-powered air compressor or blower is directed well away from the manhole. Check points: 1. Test for gas in accordance. 2. Pump out water. 3. Clean out trash, debris, etc., and dispose of properly. 4. Inspect cable, racks, splices, etc. 5. Inspect structural features. 6. Inspect manhole seal, replace if necessary. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Respirator 3. Barricade

ARCS-MHL-02-03M Frequency: Quarterly
Manhole, Sewer
Application: This standard applies to manholes which contain sanitary sewer lines or other related piping systems. Special Instructions: 1. Review the Standard Operating Procedure for “Confined Space Entry.” Follow OSHA guidelines for permitting of entry and atmospheric testing of confined spaces. NEVER enter a confined space without a safety watch. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.” 5. Wear appropriate protective clothing. 6. No open flames or smoking. 7. Use barricade around manhole. 8. Provide ventilation within manhole. Ensure that the exhaust from the gas or diesel-powered air compressor or blower is directed well away from the manhole. Check points: 1. Test for gas. 2. Remove cover. 3. Observe flow. 4. Clean work area and remove all debris. 5. Treat for insect infestation as necessary. 6. Inspect manhole seal, replace if necessary. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Respirator 3. Barricade

ARCS-MHL-03-06M Frequency: Semi-annually
Manhole (Water, Steam, and Fuel Oil)
Application: This standard applies to manholes which contain water, steam system, fuel oil or other systems. Special Instructions: 1. Review the Standard Operating Procedure for “Confined Space Entry.” Follow OSHA guidelines for permitting of entry and atmospheric testing of confined spaces. NEVER enter a confined space without a safety watch. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.” 5. Wear appropriate protective clothing. 6. No open flames or smoking. 7. Use barricade around manhole. 8. Provide ventilation within manhole. Ensure that the exhaust from the gas or diesel-powered air compressor or blower is directed well away from the manhole. 9. Maintenance of any equipment located in the manhole will be performed under the appropriate standard card in conjunction with this maintenance activity. Check points: 1. Test for gas. 2. Remove cover. 3. Observe flow. 4. Examine structural features of sewer line, interior of manhole, manhole frame and cover, etc. 5. If applicable, Check for water accumulation. Pump out water. If contaminated follow hazmat procedures for proper disposal. 6. Clean work area and remove all debris.

  1. Treat for insect infestation as necessary. 8. Inspect manhole seal, replace if necessary. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Respirator 3. Barricade

ARCS-RFS-01-06M Frequency: Semi-annually
Roof Inspection, Built Up Type
Application This standard applies to Built-Up roofing systems typically consisting of a waterproof membrane (bituminous) over a deck, an outer protective coating (rocks, gravel, roll roofing, cement shingles, metal, etc.) and metal flashing or coping at edges and seams. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s or installer’s instructions (if available) 3. Perform inspections twice annually in the spring and fall when the roof is driest and most accessible. 4. Additional inspections should be performed after any severe winds or storms. 5. A maintenance check list and copy of the roof plan should be used at time of inspection and areas of concern should be clearly marked so they can be easily located by repair crews. 6. It is vitally important to identify and repair the root cause of any problem to prevent further damage to the roofing system. 7. Use care when working in high places, use safety belt if necessary. Check Points: 1. Check ceilings and the underside of the deck for signs of water entry such as stained ceiling tiles, dry rot in a wooden deck, or rust in a steel deck. Note all deteriorated areas on the roof plan for comparison later on the roof. 2. Walk around the perimeter of the building. Check for cracks and signs of water entry into the walls; examine exterior drainage accessories such as downspout, scupper heads and gutters for signs of leakage. Mark the deficiencies on the roof plan and proceed to the roof. 3. Check for ponding and plant growth (roof should drain within 48 hours of a rain fall). Accumulation of water (ponding) should be noted on the roof plan. Pay particular attention to areas near building air intakes. 4. Check for physical damage such as punctures, note location of patches, repairs and accumulation of debris especially near drains.

  1. Check for wrinkles, buckles, bubbles and sponginess. Note exposure of bituminous coating due to loose or missing gravel. 6. Check all flashing for wind damage, missing caulking, curling, and exposed edges. Check flashing fasteners for looseness and deterioration. Check any fibrous material that might be asbestos for deterioration. Report information on any asbestos material to the asbestos program. 7. Check the condition of any joints, roof to wall joint in particular. Check the termination of roofing expansion joints at parapet walls. Be sure that water drains off the top of the coping and that it is well attached. 8. Check coping for deterioration, especially rusting, punctures, open seams and spalling or cracking in masonry coping. 9. Check whether walkways are in logical locations and in good condition with no blistering below them. 10. Check that any installed equipment such as antennas, HVAC equipment and flagpoles are properly installed according to building codes, including necessary I-beam supports for heavy A/C equipment and are flashed and secured to the building. 11. Cleanout and refill pitch pockets (penetration pockets) where filler is cracked or shrinking. 12. Check ballast (rock) for even spread; remove any with very sharp edges. 13. TPO Roofs (if applicable) must be kept clean for maximum reflectivity. 14. Check all roof hatches, doors and access/egress points. Inspect weather seals, replace if necessary. Check for proper latching/ opening pressure and swing. Inspect (locking mechanism where applicable) 15. Remove all trash, debris or unsecured material from roof and dispose of properly. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Ladder constructed in accordance with OSHA/ANSI STANDARDS. Check ladder for defects. Do not use defective ladders. 3. Safety line and harness (if necessary).

ARCS-RFS-03-03M Frequency: Quarterly
Extensive and Intensive Vegetative Roof
Application: This standard applies to Extensive and Intensive Vegetative Roofs. Special Instructions: 1. Check membrane, flashing and roof penetration condition for degradation and signs of leakage 2. Clean drains and gutters 3. Check irrigation system for uniform coverage, valve leakage, plugged heads, and leaking solenoids 4. Check and clean cisterns 5. Check operation of any pumps, floats, or irrigation controls. Irrigation controls tied to a weather service should have connection verified (verify appropriate weather station is used) 6. Check for invasive/damaging weeds and treat appropriately 7. Assess any needs for fertilization Check Points: See Special Instructions Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Ladder constructed in accordance with OSHA/ANSI STANDARDS. Check ladder for defects. Do not use defective ladders. 3. Safety line and harness (if necessary).

ARCS-SCT-01-03M Frequency: Quarterly
Key Card System
Application: This standard applies to Key Card Access systems which control building access. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Disassemble card reader head and vacuum. 2. Check card printer unit and vacuum. 3. Check wiring for loose connections, discoloration, etc. 4. Change filter. 5. Change batteries. 6. Check cards to see if codes are in operation. 7. Reassemble unit. 8. Clean exterior and surrounding area of unit. Recommended Tools, Materials, and Equipment: 1. Tool group B 2. Spare filter and batteries 3. Cleaning equipment and material. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Vacuum cleaner

ARCS-SCT-02-01Y Frequency: Annually
Parking Arm Gates
Application: This standard applies to parking arm gates which control building parking access. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Lubricate mechanism with graphite. 2. Adjust linkage between motor and arm. 3. Check and adjust arm pressure. 4. Check and adjust sensitivity on magnetic coils embedded in asphalt. 5. Fill cracks in asphalt where coils are imbedded. 6. Clean and adjust electric breakers. 7. Paint arm as required. Replace if damaged. Recommended Tools, Materials, and Equipment: 1. Tool group B 2. Torque wrenches 3. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Asphalt filler 5. Appropriate lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

ARCS-STR-01-01Y Frequency: Annually
Lightning Protection
Application: This standard applies to Lightning Protection systems installed on the building to discharge to ground any electrical charges caused by lightning. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. During the first inspection, check that: a) All air terminals (lightning rods) are interconnected. b) At least two down conductors are installed with their own ground connection. Check points: 1. Inspect air terminals for corrosion and rigid attachment to structure. 2. Examine conductors and all connections for corrosion, strong mechanical joints which provide good electrical conductivity, and loose or broken fasteners. 3. Check for loops, sharp bends (less than 8″ radius) and frayed horizontal and vertical conductors. 4. Check for damaged guards and down conductors. 5. Inspect grounding attachment for permanency and corrosion (if practical). 6. Test resistance to ground for each down conductor. 7. Clean up work area and remove debris. Recommended Tools, Materials, and Equipment: 1. Tool Group B

ARCS-SWM-01-01M Frequency: Monthly
Storm Water Management: Ponds (Dry and Wet)
Application This standard is intended for Detention and Retention Ponds. This standard is intended to be used to ensure ponds sustain effective removal of a variety of pollutants in accordance with local jurisdiction and requirements. Special Instructions: In addition to the procedure(s) outlined in this standard, local jurisdiction shall be strictly adhered. Check points: A checklist can be found in the Operation, Maintenance and Management of Stormwater Management Systems authored by the Office of Water, U.S. Environmental Protection Agency. As of this writing, the most recent document was authored in 1997. Refer to Chapter 7, Appendix 7-1 for specific monthly checklist requirements as it pertains to dry ponds. Recommended Tools, Materials, and Equipment: Recommended tools are itemized in the Operation, Maintenance and Management of Stormwater Management Systems (Chapter 7), Office of Water, U.S. Environmental Protection Agency.

ARCS-SWM-02-01M Frequency: Monthly
Storm Water Management : Basins
Application This standard is intended for stormwater basins. Special Instructions: In addition to the procedure(s) outlined in this standard, local jurisdiction shall be strictly adhered. Check points: A checklist can be found in the Operation, Maintenance and Management of Stormwater Management Systems authored by the Office of Water, U.S. Environmental Protection Agency. As of this writing, the most recent document was authored in 1997. Refer to Chapter 7, Appendix 7-2 for specific monthly checklist requirements as it pertains to basins. Recommended Tools, Materials, and Equipment: Recommended tools are itemized in the Operation, Maintenance and Management of Stormwater Management Systems (Chapter 7), Office of Water, U.S. Environmental Protection Agency.

ARCS-SWM-03-01M Frequency: Monthly
Storm Water Management : Trenches
Application This standard is intended for stormwater trenches. Special Instructions: In addition to the procedure(s) outlined in this standard, local jurisdiction shall be strictly adhered. Check points: A checklist can be found in the Operation, Maintenance and Management of Stormwater Management Systems authored by the Office of Water, U.S. Environmental Protection Agency. As of this writing, the most recent document was authored in 1997. Refer to Chapter 7, Appendix 7-2B for specific monthly checklist requirements as it pertains to trenches. Recommended Tools, Materials, and Equipment: Recommended tools are itemized in the Operation, Maintenance and Management of Stormwater Management Systems (Chapter 7), Office of Water, U.S. Environmental Protection Agency.

ARCS-SWM-04-01M Frequency: Monthly
Storm Water Management : Dry Wells
Application This standard is intended for stormwater dry wells. Special Instructions: In addition to the procedure(s) outlined in this standard, local jurisdiction shall be strictly adhered. Check points: A checklist can be found in the Operation, Maintenance and Management of Stormwater Management Systems authored by the Office of Water, U.S. Environmental Protection Agency. As of this writing, the most recent document was authored in 1997. Refer to Chapter 7, Appendix 7-2C for specific monthly checklist requirements as it pertains to dry wells. Recommended Tools, Materials, and Equipment: Recommended tools are itemized in the Operation, Maintenance and Management of Stormwater Management Systems (Chapter 7), Office of Water, U.S. Environmental Protection Agency.

ARCS-SWM-05-01M Frequency: Monthly
Storm Water Management : Permeable Pavers
Application This standard is intended for permeable pavers. Special Instructions: In addition to the procedure(s) outlined in this standard, local jurisdiction shall be strictly adhered. Check points: A checklist can be found in the Operation, Maintenance and Management of Stormwater Management Systems authored by the Office of Water, U.S. Environmental Protection Agency. As of this writing, the most recent document was authored in 1997. Refer to Chapter 7, Appendix 7-2D for specific monthly checklist requirements as it pertains to pavers. Recommended Tools, Materials, and Equipment: Recommended tools are itemized in the Operation, Maintenance and Management of Stormwater Management Systems (Chapter 7), Office of Water, U.S. Environmental Protection Agency.

ARCS-SWM-06-01M Frequency: Monthly
Storm Water Management : Hydrodynamic Structures (i.e. swales) Application This standard is intended for hydrodynamic structures (swales). Special Instructions: In addition to the procedure(s) outlined in this standard, local jurisdiction shall be strictly adhered. Check points: A checklist can be found in the Operation, Maintenance and Management of Stormwater Management Systems authored by the Office of Water, U.S. Environmental Protection Agency. As of this writing, the most recent document was authored in 1997. Refer to Chapter 7, Appendix 7-2E for specific monthly checklist requirements as it pertains to hydrodynamic structures (swales). Recommended Tools, Materials, and Equipment: Recommended tools are itemized in the Operation, Maintenance and Management of Stormwater Management Systems (Chapter 7), Office of Water, U.S. Environmental Protection Agency.

ARCS-SWM-07-01M Frequency: Monthly
Storm Water Management : Biofiltration
Application This standard is intended for the biofiltration: bioretention cells and/or rain gardens. Special Instructions: In addition to the procedure(s) outlined in this standard, local jurisdiction shall be strictly adhered. Check points: A checklist can be found in the Operation, Maintenance and Management of Stormwater Management Systems authored by the Office of Water, U.S. Environmental Protection Agency. As of this writing, the most recent document was authored in 1997. Refer to Chapter 7, Appendix 7-4 for specific monthly checklist requirements as it pertains to bioretention. Recommended Tools, Materials, and Equipment: Recommended tools are itemized in the Operation, Maintenance and Management of Stormwater Management Systems (Chapter 7), Office of Water, U.S. Environmental Protection Agency.

ARCS-WIN-01-01Y Frequency: Annually
Window Washing Scaffold, Power Operated
Application This standard applies to window washing scaffold that is deployed from the roof. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Set suitable barriers on the ground as necessary. Prevent obstructions from impeding pedestrian traffic around the work area. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Inspect structural features on roof. Remove obstructions from the track and from, on, or near the garage. 2. Inspect roof car, platform, steps, wire mesh panels, gate, hinges, hardware, etc. 3. Observe operation of drive motor and mechanism, brake, cable, reel, drive, wheels, guide rollers, etc. Adjust as necessary. 4. Examine telephone cable reel and make a test call. 5. Inspect operation of electric controller, direction switches, inching buttons, protective devices, limit switches, position interlocks, locking pins and sockets, etc. Adjust as necessary. 6. Check operation of manual and emergency controls, hand crank, motor disengagement, brakes, and other devices. Adjust as necessary. 7. Inspect fresh water and wash water tanks, pipe lines, drains, inspection or access openings and covers, etc. Empty and wash out tanks after use. 8. Test operation of scaffold from low to high position and along track to assure safe operation. Test all control devices, interlocks, limits, etc. 9. Inspect hoist ropes for worn, frayed, or broken strands. 10. Perform any work prescribed by manufacturer that is not indicated here. 11. Lubricate all necessary moving parts per the manufacturer’s recommendations.

Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Lubricants

CHLD-EQP-01-01M Frequency: Monthly
Child Care Equipment
Application This standard is intended for Child Care equipment. This standard is intended to be used to ensure that the equipment and systems are maintained in a safe operating condition, there are no parts, pieces, conditions or situations that my cause injury or endanger the users or pedestrians when used in accordance with the manufacturers placards, recommendations, instructions or guidelines. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Obtain and understand the manufacturer’s inspection and maintenance requirements for the equipment. 3. Read and understand manufacturer’s instructions of each device before making adjustments to the equipment or to the system. Understand what effects making adjustments will have on the operation of the equipment PRIOR to making any changes. 4. Ensure that the equipment is not in use and that the area is free and clear of children and bystanders that may either be in the work area or may be in danger by in close proximity to tools and serviced equipment. This may require closing the area or constructing a safety barrier. 5. This PM will typically require one person. 6. If a condition is found to exist which is, unsafe, or may cause injury, immediate action must be taken to resolve the situation by securing the equipment or area from further use and notifying the building Property Manager / Child care operator. 7. Responsibility for correction of deficiencies may fall to others, such as the child care provider, cleaning and lawn maintenance programs, or field office manager/child care coordinator. Findings shall be reported to the appropriate manager. 8. Be particularly alert to potential entrapment hazards in playground equipment. Check points: 1. Visually inspect equipment to ensure structural integrity, check all mechanical connections and fasteners for tightness. 2. Visually inspect equipment for body shearing or pinch points.

  1. Visually inspect equipment for any parts or structure that could pierce or puncture. 4. Visually inspect all welded connections for signs of cracks or deterioration. 5. Visually inspect all rope and chain for proper coverings and for signs of wear. 6. Visually inspect any wheels and or bearings. 7. Lubricate moving parts as appropriate. 8. Visually inspect all areas and surfaces that are seating and sliding surfaces for sharp edges or indentations that may injure users. 9. Visually inspect all ground anchor points and supports. 10. Visually inspect any anti slip coatings or strips. Recoat or replace if necessary. 11. Visually inspect paint, decorative coatings or decals, repaint or replace.(No lead based paints shall be used) . If lead paint is suspected, paint shall be tested. If positive for lead paint notify GSA manager immediately and follow proper procedure to mitigate. 12. Visually inspect safety notices and placards. Replace if necessary. 13. Check for any unsafe pinch points or conditions. 14. Visually inspect ground area beneath equipment to insure no sharp objects and that the ground surface cushioning is adequate for the piece of equipment. 15. If equipment is found to be in an unsafe condition, the equipment shall be removed from service and placed in a safe condition until repairs can be made. Recommended Tools, Materials, and Equipment: 1. Wrench set 2. Socket set 3. Screw driver 4. Pliers 5. Safety barrier kit

CHLD-SEC-01-01M Frequency: Monthly
Child Care secured perimeter systems
Application This standard is intended for Child Care secured perimeter systems. This standard is intended to be used to ensure that the areas designated for child care are secured and maintained in a safe condition, there are no, conditions or situations that my cause injury or endanger the users or occupants when the area is used in accordance with its designed intent and/or the occupants follow the specific instructions placards or guidelines set forth for the use of the space or area. Prior to conducting these tasks, review all specifications and requirements specific to Child Care areas. Special Instructions: 1. If a condition is found to exist which is, unsafe, or may cause injury, immediate action must be taken to resolve the situation by securing the equipment or area from further use and notifying the building Property Manager / Child care operator. 2. Responsibility for correction of deficiencies may fall to others, such as the child care provider, cleaning and lawn maintenance programs, or field office manager/child care coordinator. Findings shall be reported to the appropriate manager. 3. Be particularly alert to potential entrapment hazards in playground equipment. Check points: 1. Visually inspect the perimeter barrier, fence or walls for any breaches. 2. Visually inspect perimeter gates/doors or hatches to ensure they are secured from the outside. 3. Visually inspect that all means of egress from inside are fully functional and open under the required opening pressure. 4. Visually inspect that all Fire life safety devices/systems are functional. 5. Visually inspect ground area for any trip hazards. 6. Verify that electronic security alarms/CCTV systems are functional. 7. Visually inspect for trees or shrubs that may be obstructing or overhanging area. 8. Visually inspect that all warning and notice signs/ placards are in place. Recommended Tools, Materials, and Equipment: 1. Flashlight

  1. Screw driver 3. Wrenches 4. Ladder

 

CHLD-SPC-01-01M Frequency: Monthly
Child Care Areas
Application This standard is intended for Child Care areas. This standard is intended to be used to ensure that the areas designated for child care use are maintained in a safe condition, there are no conditions or situations that my cause injury or endanger the users or occupants when the area is used in accordance with its design intent and/or the occupants follow the specific instructions placards or guidelines set forth for the use of the space or area. Prior to conducting these tasks, review all specifications and requirements specific to Child Care space for example: HVAC systems (temperature, air flow, outside air), Domestic water (temperatures/pressures). Special Instructions: 1. If a condition is found to exist which is, unsafe, or may cause injury, immediate action must be taken to resolve the situation by securing the equipment or area from further use and notifying the building Property Manager / Child care operator. 2. Responsibility for correction of deficiencies may fall to others, such as the child care provider, cleaning and lawn maintenance programs, or field office manager/child care coordinator. Findings shall be reported to the appropriate manager. 3. Be particularly alert to potential entrapment hazards in playground equipment. Check points: 1. Visually inspect fire life safety devices/equipment. Fire extinguishers for location, mounting and inspection date. Fire sprinkler heads not obstructed. Smoke detectors and pull stations unobstructed and functional. Emergency lighting is functional. Fire exits unobstructed and door opening pressure is correct. 2. Verify any emergency notification devices (Duress alarm/Phones) are functional. 3. Verify any security alarm/CCTV systems are functional. 4. Visually inspect any lifts/elevators for proper operation. 5. Visually inspect all electrical system components. Electrical rooms are locked; panels secured and locked Switches and switch plates in proper working condition. Outlets properly covered where required and cover plates fastened securely.

  1. Visually inspect floor drains, covers secured and traps primed. 7. Check all service doors/ hatches to ensure they are secured and locked. 8. Visually inspect all windows for proper operation. Ensure max opening limits are correct and that locking mechanism is functional. 9. Visually inspect doors for proper operation. Door closer tension is correct and doors latch and lock properly. 10. Visually inspect all glass panes in windows /doors for cracks and loose panes. 11. Verify the space HVAC systems are functioning properly and the air flows and temperatures are within those specified. 12. Verify domestic hot water temperature is within range with no scalding hazards. 13. Verify drinking fountains are working properly. 14. Verify all hot water piping or hot surfaces are properly insulated or out of reach. 15. Inspect floor surfaces for tears, rips, bubbling, wrinkling and/or other trip hazards. 16. Inspect cabinetry for any loose attachments, faulty hinges, loose screws, sharp edges and that cabinet doors close and latch securely and properly. 17. Visually inspect lighting for failed lamps. 18. Visually inspect ceiling tile for water damage, damaged or loose tile. 19. Visually inspect wall surfaces for loose wall coverings and/or areas with paint that is chipped or pealing. If lead paint is suspected, paint shall be tested. If positive for lead paint notify GSA manager immediately and follow proper procedure to mitigate. Recommended Tools, Materials, and Equipment: 1. Flashlight 2. Digital thermometer 3. Screw driver 4. Safety barrier kit 5. Ladder

 

CLNG-SCB-01-03M Frequency: Quarterly
Scrubbing Machine, Battery or Propane Powered
Application This standard applies to battery or propane powered scrubbing machines used for scrubbing hard floor surfaces such as marble, ceramic tile, and terrazzo in lobbies, corridors, and toilet rooms. Daily equipment care should be accomplished by operator in accordance with established procedures. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s maintenance instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Battery powered scrubbing machine: 1. Inspect all connections for tightness. 2. Vacuum or blow out dust from cooling air passages. 3. Lubricate according to manufacturer’s instructions. 4. Check and adjust, as needed, belts and/or chain drive. 5. Check brakes, clutch, wheels, tires, steering, and frame for wear and damage. Replace or repair according to manufacturer instructions. 6. Inspect lights, buzzers, controls, flashers and wiring for tight connections and proper operation. 7. Check engine starter battery, charge if necessary. 8. Start machine and observe operation. Check suction on the dirty scrub water pickup. Propane powered scrubbing machine: 1. Inspect fuel tank, connections, and lines for leaks and deterioration. Tighten or replace as required. 2. Check for oil leaks and change oil, air, and fuel filters. 3. Change points, radiator, plugs, and rotor button if applicable. 4. Lubricate according to manufacturer’s recommendations.

  1. Check and adjust, as needed, belts and/or chain drive. 6. Check brakes, clutch, wheels, tires, steering, and frame for wear and damage. Replace or repair according to manufacturer instructions. 7. Inspect lights, buzzers, controls, flashers and wiring for tight connections and proper operation. 8. Check engine starter battery, charge if necessary. 9. Start machine and observe operation. Check suction on the dirty scrub water pickup.

Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Oil and Lubricants. 3. Brake adjusting tool 4. Belts 5. Gap gauge. 6. Spark plug (if required) 7. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 8. Vacuum 9. Tire gauge

CLNG-SNO-01-01Y Frequency: Annually
Snow Blower
Application: This applies to gasoline powered, hand operated, and reel type snow blowers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s maintenance instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Routine cleaning, lubrication, and the application of rust preventive compound to bare metal parts of the equipment prior to storing shall be accomplished by the operator. Check Points: 1. Change engine oil (Note: Oil should be changed at end of season prior to storing for summer). Review the Material Safety Data Sheets (MSDS) for proper disposal of used oil. If appropriate, recycle oil at an authorized station. Contact the Regional S&EM office if you have any questions. 2. Service air and fuel filters. 3. Clean and gap or replace spark plug. 4. Inspect blades. 5. Inspect tires. 6. Inspect belts or chains. Lubricate as necessary. Place a light coat of oil on chains prior to summer layup. 7. Inspect unit, remove any debris from cooling air passages, and make other needed adjustments. 8. Check engine starter battery, charge if necessary. 9. Start machine and observe operation. 10. Clean up work area, and remove all debris. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Gap gauge

  1. Lubricants. 4. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Filters – fuel and air 6. Spark plug (if required)

CLNG-SWP-01-06M Frequency: Semi-annually
Sweeper, Riding
Application This applies to gasoline or gas powered type sweepers used in driveways, parking lots, sidewalks, etc. Daily lubrication should be accomplished by the operator. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s maintenance instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Change oil and filter every fifty operating hours. 2. Service air and fuel filters. 3. Inspect engine, clean cooling air passages. 4. Clean and gap, or change spark plug. 5. Check oil level in gear boxes. 6. Adjust tension and/or replace V-belts. 7. Adjust brakes, brushes, and operating mechanisms as recommended by the manufacturer’s instructions. 8. Clean entire unit. 9. Clean up work area and remove all debris. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Oil 3. Gap gauge 4. Brake adjusting tool 5. Drive Belts 6. Spark plug (if required)

CLNG-TCP-01-01Y Frequency: Annually
Trash Compactor
Application This applies to large trash compactors set an the site to handle building waste. Daily equipment care should be accomplished by the operator in accordance with established procedures. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s maintenance instructions. 3. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Protection”. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Extend ram, open door, check guide block retainers, and fit of guide blocks (Ram should not score wall). 2. Check operation of safety switches to insure they have not been by-passed. Check switches, contactors, disconnects. Tighten connections. 3. Grease couplings. 4. Check oil. Change if required. 5. Clean strainer in tank. 6. Clean pump exterior, motor exterior, line, etc. Remove trash and debris from mechanical areas. 7. Clean inside and outside of unit. 8. Lubricate according to manufacturer’s instructions. 9. Start machine and observe operation. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

  1. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

CLNG-VAC-01-06M Frequency: Semi-annually
Vacuum Cleaner, Heavy Duty, Tank Type
Application This applies to heavy duty, tank type cleaners used for vacuum cleaning carpet in office areas. Daily equipment care should be accomplished by the operator in accordance with established procedures. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s maintenance instructions. 3. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Protection”. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Check interior of tank for damage. 2. Inspect screens, bags, bag frames and exhaust parts. 3. Clean and wash all bags and bag frames 4. Vacuum or blow out dust from cooling air passages. 5. Service filter. 6. Lubricate according to manufacturer’s instructions. 7. Start machine and observe operation. 8. Operate unit and check for vacuum leaks. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Portable vacuum cleaner 3. Sealing compound. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Extra vacuum bag replacements 5. Respirator and other appropriate safety equipment

CLNG-VAC-02-01Y Frequency: Annually
Vacuum, Central System
Application This standard card applies to the vacuum producer on centralized, permanently installed vacuum cleaning systems. The motor or driver will be serviced using the standard for motors. Tubing and outlets will be serviced on a service call basis. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s maintenance instructions. 3. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Protection”. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Lubricate as required. 2. Check vibration collars and seals for leaks. 3. Check interior of tank for damage. 4. Inspect screens, bags, bag frames and exhaust parts. 5. Clean and wash all bags and bag frames 6. Remove tags and restore power. 7. Operate unit and check for vacuum leaks. 8. Check vacuum gauge and controls. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Portable vacuum cleaner 3. Sealing compound. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Extra vacuum bag replacements 5. Respirator and other appropriate safety equipment

CTRL-DDC-01-01W Frequency: Weekly
BAS Server
Application: Building automation system (BAS) computers “Front Ends” act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers for a multiple workstation network. Some “Front Ends” are connected to the internet where they are controlled or accessed by different users. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. Obtain and review manufacturer’s information for servicing, testing and operating. 2. Schedule maintenance with operating personnel. 3. Obtain and review manufacturer’s information for servicing, testing and operating. 4. This procedure must be completed by a user with sufficient privileges to perform administrative and maintenance tasks on the computer. 5. This procedure may require additional assistance from the IT department or the controls contractor. Children of this Parent Piece of Equipment BAS Server Client Workstation, Building Level Network Check Points: 1. Review Windows System, Security, and Application Event Logs. Correct any critical errors denoted by a red circle with a white “X”. Make note of and/or correct any warning notices denoted by a yellow triangle with a black “!”. WARNING: Correcting these errors may require a system reboot. 2. If system data backups are completed automatically, verify the backup ran on schedule and without errors. Perform a monthly manual backup, if backups are run manually. 3. Back up monthly trends

CTRL-DDC-01-01M Frequency: Monthly
BAS Server
Application: Building automation system (BAS) computers “Front Ends” act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers for a multiple workstation network. Some “Front Ends” are connected to the internet where they are controlled or accessed by different users. Special Instructions: 1. This maintenance should be completed at the same time as the weekly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Schedule maintenance with operating personnel. Microsoft issues regular security patches the second Tuesday of every month. 4. Obtain and review manufacturer’s information for servicing, testing and operating. 5. This procedure must be completed by a user with sufficient privileges to perform administrative and maintenance tasks on the computer. 6. This procedure may require additional assistance from the IT department or the controls contractor. 7. It is recommended to have a backup of the system prior to completing this procedure. Children of this Parent Piece of Equipment BAS Server Client Workstation, Building Level Network Check Points: 1. Perform a system back up. 2. Using the Windows Update utility, install any security patches issued by Microsoft. WARNING: Installing these patches may require a system reboot. 3. Back up monthly trends.

CTRL-DDC-01-03M Frequency: Quarterly
BAS Server
Application: Building automation system (BAS) computers “Front Ends” act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers for a multiple workstation network. Some “Front Ends” are connected to the internet where they are controlled or accessed by different users. Special Instructions: 1. This maintenance should be completed at the same time as the weekly and monthly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Schedule maintenance with operating personnel. Microsoft issues regular security patches the second Tuesday of every month. 4. Obtain and review manufacturer’s information for servicing, testing and operating. 5. This procedure must be completed by a user with sufficient privileges to perform administrative and maintenance tasks on the computer. 6. This procedure may require additional assistance from the IT department or contractor or the controls contractor. 7. It is recommended to have a backup of the system prior to completing this procedure. Children of this Parent Piece of Equipment BAS Server Client Workstation, Building Level Network Check Points: 1. Defragment the hard drive using the Windows defragmentation utility or third party software on the workstation or server. This can take up to several hours to complete depending on the size of the hard drive. 2. Perform disk cleanup Windows disk cleanup utility or third party software on the workstation or server 3. Replace the backup media used for system backups with new media as recommended by the backup device’s manufacturer. 4. Laptop Workstations

  1. a) Plug laptop into GSA network and get software updates b) Contact local IT to insure laptop is updated correctly Recommended Tools Backup drive media.

CTRL-DDC-01-01Y Frequency: Annually
BAS Server
Application: Building automation system (BAS) computers “Front Ends” act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers for a multiple workstation network. Some “Front Ends” are connected to the internet where they are controlled or accessed by different users. Special Instructions: 1. This maintenance should be completed at the same time as the weekly, monthly and quarterly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Schedule maintenance with operating personnel. 4. Obtain and review manufacturer’s information for servicing, testing and operating. 5. Obtain “AS BUILT” diagrams of installation. 6. Computers and the electronic components of which they are comprised are highly susceptible to electrostatic discharge. Ensure personnel adequately ground themselves prior to working on electronic equipment to avoid equipment damage and/or loss of data. Children of this Parent Piece of Equipment BAS Server Client Workstation Check Points: 1. Clean key board with clean, dry, compressed air and/or cleaning kit 2. Clean mouse with a cleaning kit 3. Shut down the computer, clean internal enclosure 4. Check all internal cables are inserted fully into the motherboard and devices. 5. Back up system weekly 6. Defragment hard drive using computer operating system or third party software 7. Update “Front End” software, check with software provider

  1. Laptop Workstations a) Windows 7 i. Open the battery power meter dialog box by clicking on the battery icon, then “more power options”. ii. Verify that the top of the window does NOT say “Consider replacing your battery”. If the checkbox “Warn me if my battery may need to be replaced” is visible, make sure that it is checked. This checkbox may not be visible with a healthy battery. iii. Replace battery if indicated. b) Other operating systems i. Charge battery to 100% ii. Unplug charger for 10 minutes. iii. If the battery has lost more than 10% of its charge (charge shows 90% or less), replace battery. Recommended Tools, Materials, and Equipment: 1. Cleaning tools and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 2. Anti-static field kit

CTRL-DDC-02-01W Frequency: Weekly
BAS Server Client Workstation
Application: Building automation system (BAS) workstations act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers in a multiple workstation network. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule maintenance with operating personnel. 3. Obtain and review manufacturer’s information for servicing, testing and operating. 4. This procedure must be completed by a user with sufficient privileges to perform administrative and maintenance tasks on the computer. 5. This procedure may require additional assistance from the IT department or the controls contractor. Check Points: Review Windows System, Security, and Application Event Logs. Correct any critical errors denoted by a red circle with a white “X”. Make note of and/or correct any warning notices denoted by a yellow triangle with a black “!”. WARNING: Correcting these errors may require a system reboot.

CTRL-DDC-02-01M Frequency: Monthly
BAS Server Client Workstation
Application: Building automation system (BAS) workstations act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers in a multiple workstation network. Special Instructions: 1. This maintenance should be completed at the same time as the weekly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Schedule maintenance with operating personnel. Microsoft issues regular security patches the second Tuesday of every month. 4. Obtain and review manufacturer’s information for servicing, testing and operating. 5. This procedure must be completed by a user with sufficient privileges to perform administrative and maintenance tasks on the computer. 6. This procedure may require additional assistance from the IT department or the controls contractor. 7. It is recommended to have a backup of the system prior to completing this procedure. Check Points: 1. Perform a system back up. 2. Using the Windows Update utility, install any security patches issued by Microsoft. WARNING: Installing these patches may require a system reboot.

CTRL-DDC-02-03M Frequency: Quarterly
BAS Server Client Workstation
Application: Building automation system (BAS) workstations act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers in a multiple workstation network. Special Instructions: 1. This maintenance should be completed at the same time as the weekly and monthly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Schedule maintenance with operating personnel. Microsoft issues regular security patches the second Tuesday of every month. 4. Obtain and review manufacturer’s information for servicing, testing and operating. 5. This procedure must be completed by a user with sufficient privileges to perform administrative and maintenance tasks on the computer. 6. This procedure may require additional assistance from the IT department or contractor or the controls contractor. 7. It is recommended to have a backup of the system prior to completing this procedure. Check Points: 1. Defragment the hard drive using the Windows defragmentation utility or third party software on the workstation or server. This can take up to several hours to complete depending on the size of the hard drive. 2. Replace the backup media used for system backups with new media as recommended by the backup device’s manufacturer. Recommended Tools Backup drive media.

CTRL-DDC-02-01Y Frequency: Annually
BAS Server Client Workstation
Application: Building automation system (BAS) workstations act as an application server and/or a database server for building mechanical, electrical and safety systems. These computers are generally standalone desktop computers used as servers in a multiple workstation network. Special Instructions: 1. This maintenance should be completed at the same time as the weekly, monthly and quarterly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Schedule maintenance with operating personnel. 4. Obtain and review manufacturer’s information for servicing, testing and operating. 5. Obtain “AS BUILT” diagrams of installation. 6. Computers and the electronic components of which they are comprised are highly susceptible to electrostatic discharge. Ensure personnel adequately ground themselves prior to working on electronic equipment to avoid equipment damage and/or loss of data. Check Points: 1. Clean key board with clean, dry, compressed air and/or cleaning kit 2. Clean mouse with a cleaning kit 3. Shut down the computer, clean internal enclosure 4. Check all internal cables are inserted fully into the motherboard and devices. 5. Backup system weekly 6. Defragment hard drive using computer operating system or third party software 7. Update “Front End” software, check with software provider 8. Computer Virus protection scans, weekly 9. Computer Software error scans, weekly

  1. Perform maintenance as suggested by manufacturer’s instruction book. Recommended Tools, Materials, and Equipment: 1. Cleaning tools and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 2. Anti-static field kit

CTRL–DDC-03-03M Frequency: Quarterly
Network, Management Level
Application This standard is for Ethernet networks that are an integral part of a Direct Digital (DDC) Building Automation System (BAS). High performance and clean network construction is essential for the efficient and optimal operation of building mechanical systems. A facility should maintain a comprehensive list in the building equipment inventory of all networking devices and network details. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 4. Obtain and understand control system diagrams. 5. This procedure may require the assistance of the controls contractor. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check points: Audit all Ethernet connections to the system. Verify all Ethernet connections are plugged into properly assigned BAS hub, router, and switch ports. Record and correct any discrepancies.

CTRL–DDC-03-01Y Frequency: Annually
Network, Management Level
Application This standard is for Ethernet networks that are an integral part of a Direct Digital (DDC) Building Automation System (BAS). High performance and clean network construction is essential for the efficient and optimal operation of building mechanical systems. A facility should maintain a comprehensive list in the building equipment inventory of all networking devices and network details. Special Instructions: 1. This maintenance should be completed at the same time as the quarterly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 3. Obtain and understand control system diagrams. 4. Schedule network outages for the affected segment(s) of network(s). 5. This procedure may require the assistance of the controls contractor. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Children of this Parent Piece of Equipment BAS Server, BAS workstations Check points: 1. Check wiring at each connection for loose wires, broken or cracked insulation, and un-insulated wire length. 2. Check physical condition of networking device. Clean if needed. 3. Check electrical power connections. 4. Check that device is located appropriately on the network. 5. Clean and inspect all Firewalls, routers, switches, hubs, modems, and gateways. The inspection should included a verification of proper settings per the manufacturer’s and controls system requirements.

Recommended Tools, Materials, and Equipment: 1. Tool Group B 2. Canned clean, dry air 3. Vacuum cleaner.

CTRL–DDC-04-03M Frequency: Quarterly
Network, Building Level
Application This standard is for Ethernet, non-Ethernet and field level networks that are an integral part of a Direct Digital (DDC) Building Automation System (BAS). High performance and clean network construction is essential for the efficient and optimal operation of building mechanical systems. A facility should maintain a comprehensive list in the building equipment inventory of all networking devices and network details. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 4. Obtain and understand control system diagrams. 5. This procedure may require the assistance of the controls contractor. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Parent of this Piece of Equipment BAS server Children of this Parent Piece of Equipment Field Panel Check points: Run and review building level and floor level network diagnostic reports. Any errors or excessive changes of value may be an indication of impending network or device failure. Consult with the manufacturer’s instructions or your controls contractor to resolve these issues.

CTRL–DDC-04-01Y Frequency: Annually
Network, Building Level
Application This standard is for non-Ethernet and field level networks that are an integral part of a Direct Digital (DDC) Building Automation System (BAS). High performance and clean network construction is essential for the efficient and optimal operation of building mechanical systems. A facility should maintain a comprehensive list in the building equipment inventory of all networking devices and network details. Special Instructions: 1. This maintenance should be completed at the same time as the quarterly maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 5. Obtain and understand control system diagrams. 6. Schedule network outages for the affected segment(s) of network(s). 7. This procedure may require the assistance of the controls contractor. 8. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Parent of this Piece of Equipment BAS server Children of this Parent Piece of Equipment Field Panels Check points: 1. Check wiring at each connection for loose wires, broken or cracked insulation, proper shield landing, stray strands of wire, and un-insulated wire length. There should be no more than 1/8” wire showing at the

connection point. It is important to have a small amount of wire showing to ensure there is no insulation disrupting the connection. 2. Check physical condition of networking device. Clean if needed. 3. Check electrical power connections. 4. Check that device is located appropriately on the network. 5. Check that trunk terminators are installed as required by the manufacturer’s network setup instructions. 6. Check network repeaters, isolators, extenders, or other signal amplifying equipment is installed at the appropriate location and is configured per manufacturer’s network setup instructions. 7. Check voltage and/or resistance readings are consistent with manufacturer’s specifications for network communication. Verify the signal is a clean square wave without clipped or peaked edges and has no A/C interference present. Correct conditions on the network as indicated by waveform. 8. Conduct a communications speed test per manufacturer’s instructions to verify current network configuration will support optimum network speed without data loss. Recommended Tools, Materials, and Equipment: 1. Tool Group B 2. Portable Oscilloscope 3. Volt Ohm Meter 4. Spares as needed 5. Test kits as required 6. Canned clean, dry air 7. Vacuum cleaner.

CTRL–DDC-05-01Y Frequency: Annually
Field Panel
Application This standard is for field level panels that are an integral part of a Direct Digital Control (DDC) Building Automation System (BAS). A facility should maintain a comprehensive list in the building equipment inventory of all field panels. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 3. Obtain and understand control system diagrams. 4. Schedule service outages for the areas controlled by the field panel. 5. This procedure may require the assistance of the controls contractor. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Parent of this Piece of Equipment Building Level Network Children of this Parent Piece of Equipment Controllers, Electronic Sensors, End Devices Check points: 1. Check wiring at each connection for loose wires, broken or cracked insulation, stray strands of wire, and un-insulated wire length. There should be no more than 1/8” wire showing at the connection point. It is important to have a small amount of wire showing to ensure there is no insulation disrupting the connection. Tighten any loose connections. Ensure any required high voltage barriers are in place and installed correctly. 2. Check physical condition of the device. a) Shut off power to the unit. b) Blow out the panel with clean, dry air.

  1. c) Vacuum any remaining dust d) Turn power back on to the unit. 3. Check electrical power connections including incoming line voltage. 4. Check voltages on the main board or backplane of the panel as applicable per manufacturer’s specifications. 5. Check all fuses for evidence of heating or weakening. 6. Check output voltages from each analog output are correct across the full specified voltage range. 7. Check all binary inputs and outputs open and close with the appropriate signal. 8. Check all analog inputs work across the full range of designed input. 9. Check all point labels are correct and up to date, if applicable. 10. Check all local man-machine interface ports work correctly. 11. Check all plug connections in the panel to ensure the plugs are fully seated. 12. Replace the panel back up battery with a manufacturer approved replacement battery. Recommended Tools, Materials, and Equipment: 1. Low voltage, portable, AC/DC signal generator 2. Canned clean, dry air 3. Small blade and phillips head screw drivers 4. Volt Ohm Meter 5. Batteries 6. Spares as needed 7. Test kits as required

CTRL–DDC-06-01Y Frequency: Annually
Controller
Application This standard is for field level controllers that are an integral part of a Direct Digital Control (DDC) Building Automation System (BAS). A facility should maintain a comprehensive list in the building equipment inventory of all field panels. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 3. Obtain and understand control system diagrams. 4. Schedule service outages for the areas controlled by the field panel. 5. This procedure may require the assistance of the controls contractor. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Parent of this Piece of Equipment Field Panel Children of this Parent Piece of Equipment Electronic Sensors, End Devices Check points: 1. Check wiring at each connection for loose wires, broken or cracked insulation, stray strands of wire, and un-insulated wire length. There should be no more than 1/8” wire showing at the connection point. It is important to have a small amount of wire showing to ensure there is no insulation disrupting the connection. Tighten any loose connections. Ensure any required high voltage barriers are in place and installed correctly. 2. Check physical condition of the device. a) Shut off power to the unit. b) Blow out the panel with clean, dry air.

  1. c) Vacuum any remaining dust d) Turn power back on to the unit. 3. Check electrical power connections including incoming line voltage. 4. Check all fuses for evidence of heating or weakening. 5. Check output voltages from each analog output are correct across the full specified voltage range. 6. Check all binary inputs and outputs open and close with the appropriate signal. 7. Check all analog input work across the full range of designed input. 8. Check all point labels are correct and up to date, if applicable. 9. Check all local man-machine interface ports work correctly. 10. Check all plug connections in the panel to ensure the plugs are fully seated. 11. Verify the controller is on the logical floor level network and has the proper address. Recommended Tools, Materials, and Equipment: 1. Low voltage, portable, AC/DC signal generator 2. Canned clean, dry air 3. Small blade and phillips head screw drivers 4. Volt Ohm Meter 5. Spares as needed 6. Test kits as required

CTRL-DDC-07-01Y Frequency: Annually
Sensors, Electronic
Application This standard is for electronic sensors that are an integral part of a Direct Digital (DDC) Building Automation System (BAS) and that measure variables such as temperature, humidity and pressure. Accurate measurement and reporting of control system variables is essential for the efficient and optimal operation of building mechanical systems. A facility should maintain a comprehensive list in the building equipment inventory of all electronic sensors. It is recommended that the inventory of sensors be recorded as equipment attributes of the field controller. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Read and understand manufacturer’s instructions of each device before making adjustments or performing calibration. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 4. Obtain and understand control system diagrams. 5. Ensure that the equipment associated with the sensors being checked is operational as needed to verify/calibrate sensor. 6. This PM will typically require two (2) people; one to measure and calibrate and the other to read the sensor value on the BAS. 7. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Typical Sensors that require calibration include, but are not limited to: 1. Outside air temperature 2. Air temperature (e.g. air handler supply air, mixed air, return air) 3. Water temperature (e.g. chilled water, condenser water, hot water) 4. Relative Humidity 5. Enthalpy

  1. Space temperature 7. Static pressure (e.g. supply air static pressure, building static pressure) 8. Differential pressure 9. Air flow 10. Water flow 11. Carbon monoxide 12. Carbon dioxide Parent of this Piece of Equipment Field Panel Check points: 1. Check that sensor is mounted securely and free of obstructions 2. Check physical condition of sensor 3. Check that sensor is located appropriately 4. Check the voltage, amperage, or resistance of the sensor in accordance with manufacturer’s specifications. If the device falls out of this range, adjust or replace the device. 5. Check that physical location is consistent with graphical representation on BAS front end. 6. If the sensor has an associated setpoint, verify and confirm that the setpoint is reasonable and consistent with values specified in building documentation (e.g. building operating manual, controls as-built drawings, commissioning reports, re-commissioning reports) 7. Compare BAS value with field measurement using a calibrated handheld device at least as accurate as the desired BAS accuracy 8. For calibration of CO and CO2 sensors use a gas canister to create high readings for both the handheld device and the BAS sensor. 9. Record at least five (5) separate readings from the BAS and handheld device. 10. Where BAS readings are outside accuracy specified for sensor, either calibrate or replace sensor. Recommended Tools, Materials, and Equipment: 1. Calibrated Pressure gauge, psychrometer 2. Volt Ohm Meter
  2. CO and CO2 canisters 4. Calibrated Handheld Measuring Devices at least as accurate as desired sensor accuracy. 5. Sensor spares as needed 6. Test kits as required

CTRL-DDC-08-01M Frequency: Monthly
Alarm Maintenance
Application This standard is for alarmable points that are an integral part of a Direct Digital (DDC) Building Automation System (BAS) and operate or control equipment in the building automation system. Accurate alarming of these points is essential for the efficient and optimal operation of building mechanical systems. A facility should maintain a comprehensive list of all points with the alarm property currently enabled. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 2. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 3. Obtain and understand control system diagrams. 4. Ensure that the equipment associated with the alarm point being checked is operational as needed to verify operation of the control device. 5. This PM will typically require two (2) people; one to observe actual operation of the equipment the device controls and the other to monitor and control the BAS. 6. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times. Parent of this Piece of Equipment Field Panel Check points: 1. Obtain a list of alarm points from BAS. 2. Examine the list for any omissions due to renovation, remodel, program changes, and newly added equipment. Make points alarmable as required.

  1. Examine the list for points deemed as no longer required to be alarmable due to renovations, remodels, program changes, or deleted equipment. Disable or remove alarm properties as required. 4. Examine the list for any points that are known to give “nuisance” alarms. If the point should be alarmable, correct the condition causing excessive alarming or adjust the alarm set point as required. 5. Examine the list of alarms for priority level. Adjust point alarms to the appropriate priority level.

CTRL-DDC-09-06M Frequency: Semi-annually
BAS Wireless Electronic/Pneumatic end devices (Thermostats) Application This standard is for all Wireless pneumatic/ electronic controls that sense space temperature. This standard is intended to be used to ensure that the system is operating as intended, there are no air leaks in the control air system and to ensure that the devices are operating optimally for those devices associated with operating equipment controlled by the Building Automation System. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 3. Obtain and understand control system diagrams and identify zone thermostat locations. 4. Ensure that the equipment associated with the end device being checked is operational as needed to verify operation of the control device. 5. This PM will typically require one person. Parent of this Piece of Equipment Field Panel Check points: 1. From the server, run the manufacturers system diagnostic software for the wireless system. This diagnostic shall produce a report of all functional aspects of the wireless system indicating faults that should be addressed in this maintenance. 2. Review all zone set points at the server.

CTRL-DDC-09-01Y Frequency: Annually
BAS Wireless Electronic/Pneumatic end devices (Thermostats) Application This standard is for all Wireless pneumatic/ electronic controls that sense space temperature. This standard is intended to be used to ensure that the system is operating as intended, there are no air leaks in the control air system and to ensure that the devices are operating optimally for those devices associated with operating equipment controlled by the Building Automation System. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 3. Obtain and understand control system diagrams and identify zone thermostat locations. 4. Ensure that the equipment associated with the end device being checked is operational as needed to verify operation of the control device. 5. This PM will typically require one person. Parent of this Piece of Equipment Field Panel Check points: 1. From the server, run the manufacturers system diagnostic software for the wireless system. This diagnostic shall produce a report of all functional aspects of the wireless system indicating faults that should be addressed in this maintenance. 2. Review all zone set points at the server. 3. Inspect thermostat installation; ensure mounting is correct, fastened secure and that the thermostat is not blocked by equipment generating heat or furniture blocking air circulation. 4. Remove thermostat cover and lightly blow away any accumulated dust with canned low pressure air. 5. Listen for air leaks.

  1. Replace battery.

CTRL-END-01-01Y Frequency: Annually
End Devices
Application This standard is for all pneumatic and electronic controls that sense temperature, pressure, differential pressure, humidity, and flow or operate devices such as valves and dampers. This standard is intended to be used to ensure that the system is operating as intended, there are no air leaks in the control air system and to ensure that the devices are operating optimally for those devices associated with operating equipment controlled by the Building Automation System. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. Read and understand manufacturer’s instructions of each device before making adjustments or performing calibration. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any changes. 2. Obtain and understand control system diagrams. 3. Before calibrating or adjusting pneumatic controls, adjust the pressure of the main control air supplying pneumatic sensors, thermostats, and controllers to manufacturer’s specifications. 4. Servicing of pneumatic air compressors and control air reducing stations shall be performed at the same time to prevent duplication of some service check points. Typical Sensors and Actuators to be checked or calibrated: 1. Outside air temperature 2. Mixed air temperature 3. Return air temperature 4. Discharge or supply air temperature 5. Coil face discharge air temperatures 6. Chilled water supply/return temperature 7. Condenser water supply/return temperature 8. Heating water supply/return temperature 9. Wet bulb temperature or relative humidity (RH) sensors

  1. Enthalpy Sensors 11. Space temperature sensors 12. Economizer and related dampers 13. Cooling and heating coil valves 14. Static pressure transmitters 15. Differential pressure transmitters 16. Air or water flow 17. Terminal unit dampers and flows 18. General dampers 19. Transducers and relays Parent of this Piece of Equipment Receiver Controllers, Controllers, Field Panel Check points: Pneumatic: 1. Listen for audible leaks and feel for any escaping air at tubing joints and terminations. Reed devices (i.e. thermostats) may produce audible air escape at setpoint, but any air noise should completely disappear when setpoint is significantly below (for direct acting) or above (for reverse acting) the signal level. 2. Check Control Air system pressure, ensure air is clean and dry. Blowdown all moisture separators in system. 3. Check physical condition of sensor or end device. Clean devices per manufacturer’s recommendations. 4. Ensure sensor, actuator and controllers are mounted correctly, securely and are free of any obstructions. Check unit and linkage for proper opening, closing, binding, and loose connections. Adjust linkage as required for full range of operation. 5. Check that physical location is consistent system controls diagrams. 6. Check set point of controls (temperature, humidity, or pressure) against original sequence of operation and control diagrams. 7. Check the unit over its range of control (minimum, midpoint, and maximum). Using a squeeze bulb and a pressure gage, impose simulated conditions to activate controls and check operation through full range or range of motion.
  2. Check for control point cycling. 9. Check for correct pressure differential on all two position controllers (onoff-open-closed). 10. Check condition and action of primary elements in the controllers and actuators. These can be bi-metallic strips, and or sealed bellows with capillary tubing for remote sensing, diaphragm operated pneumatic actuators. 11. Note the action of the controlling device (thermostats, humidistats, and pressure stats) which changes the action of the controlled device (motors, valves, dampers, etc.). 12. Check units for proper closing and loose connections. 13. Check the condition and the ability of humidity sensing control elements (hair, wood, leather, or similar substances) to read the moisture changes and their action on the control mechanism. 14. Check resulting action of the pressure sensing primary control elements such as diaphragms, bellows, inverted bells, and similar devices when activated by air, water, or similar pressure. Check operation of all relays, pilot valves, and pressure regulators. 15. Check the resulting action of electrically controlled devices such as for valves, dampers, solenoids 16. Replace air filters at sensors, controllers, and thermostats. 17. Replace air filters at sensors, controllers, and thermostats as required. 18. Check all external restrictors for proper size and to verify the restrictor is installed per controls drawings. Verify the restrictor is not clogged. 19. Use test kits and specific manufacturer’s instructions whenever possible. If possible, replace rather than rebuild a control installed in the system. Take removed control device to shop for repair. 20. If the sensor is out of calibration, follow manufacturer’s instructions for calibration. NOTE: Some manufacturer’s sensors cannot be field calibrated and must calibrated at the factory. Have a spare sensor for replacement if necessary. 21. Any device that cannot be field calibrated should be replaced with equipment spares and turned in to shop for repair or to be sent out for factory calibration as required. Electronic: 1. Check that sensor is mounted securely and free of obstructions 2. Check physical condition of device. Clean if needed.
  3. Check electrical connections. 4. Check that device is located appropriately 5. Check that physical location is consistent with graphical representation on BAS front end 6. Check voltage and/or resistance readings are consistent with manufacturer’s specifications for the device. Calibrate or replace if necessary. 7. Check the device through its range and ensure that the controlled equipment responds correctly to the given command. 8. Compare BAS value with field observation, i.e. open or closed, start or stop, to ensure device operation. Any device that cannot be field verified should be repaired or replaced with equipment spares and either thrown away, turned in to shop for repair or be sent out for factory service as required. Recommended Tools, Materials, and Equipment: 1. Tool Group B 2. Volt Ohm Meter 3. Calibrated Pressure gauge, psychrometer 4. Squeeze bulb with 3 psi to 15 psi gage. 5. Calibrated Handheld Temperature Measuring Device at least as accurate as desired calibration range of BAS device. 6. Restrictor replacements 7. Air filter replacements 8. Control spares as needed 9. Test kits as required

CTRL-PNU-01-06M Frequency: Semi-annually
Control Air System
Application This standard applies the control air distribution system for the HVAC system. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall system and the operation of the building PRIOR to making any changes. 2. Schedule shutdown with operating personnel, as needed. 3. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall system and the operation of the building PRIOR to making any changes. 4. Obtain and understand control system diagrams. 5. For pneumatic systems, verify proper main line pressure per manufacturer’s specifications. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Children of this Parent Piece of Equipment Receiver Controllers, End Devices Check points: 1. Perform the following procedures concurrent with this procedure: a) HVAC-AIR-01-06M Air Dryer, Refrigerated or Regenerative Desiccant Type b) HVAC-AIR-02-06M Air Compressor 2. Verify correct main line pressure leaving the main line air regulator. If the pressure is not correct adjust or repair the regulator 3. Check all main line filters for evidence of clogging, leaks, oil, or water.

  1. a) Replace the filter. If evidence of oil contamination is present, find the source of contamination and correct. b) If evidence of water contamination drain the device. Verify the air dryer is not bypassed. c) If the device leaks, repair or replace per manufacturer’s instructions. d) If the device has clogged, unclog or replace device per manufacturer’s instructions. 4. Check all pneumatic tubing for tightness and damage. Repair or replace lines as necessary. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Replacement filter cartridge.

CTRL-PNU-02-06M Frequency: Semi-annually
Receiver Controllers
Application This standard applies to all single and dual input receiver controllers in the HVAC pneumatic control system. These devices direct control air to a device to control or actuate it. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall system and the operation of the building PRIOR to making any changes. 2. Schedule shutdown with operating personnel, as needed. 3. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall system and the operation of the building PRIOR to making any changes. 4. Obtain and understand control system diagrams. 5. For pneumatic systems, verify proper main line pressure per manufacturer’s specifications. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. It is recommended that a spare calibrated receiver controller be taken into the field during this procedure to replace any non-functioning controller. Children of this Parent Piece of Equipment End Devices Check points: 1. Check inline filter for oil and moisture. Replace as required. 2. Check all external restrictors for proper size, correct installation, and clogs. Replace as required.

  1. Verify correct main line pressure at the receiver controller. If the pressure is not correct the receiver controller will not function properly. Find the cause of incorrect pressure and correct. 4. Verify the spring range of all attached end devices. 5. Verify the range of all attached sensors. 6. Check all receiver controller modules, bellows, and bleed ports as applicable for evidence of clogging , leaks, oil, or water. a) If evidence of oil contamination is present, replace the device. b) If evidence of water contamination replace the device with a spare. Let the device dry out and recalibrate. If the device won’t calibrate, discard the device. c) If the device leaks, repair or replace per manufacturer’s instructions. d) If the device is clogged, unclog or replace device per manufacturer’s instructions. 7. Follow the manufacturer’s instructions for calibrating the device. 8. Check all pneumatic tubing for tightness. Repair or replace lines as necessary. 9. Change input and/or setpoint and verify the device stabilizes (doesn’t hunt) and reaches setpoint. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Squeeze bulb with 3 psi to 15 psi gauge 3. Calibrated digital thermometer 4. Pneumatic fittings 5. .007” and .016” Restrictors 6. Inline air filters

CTRL-PNU-03-03M Frequency: Quarterly
Control Air Filter
Application This standard card applies to all control air filters installed in control air systems that are not part of the basic air compressor or air drier configurations. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 3. Schedule shutdown with operating personnel, as needed. 4. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall system and the operation of the building PRIOR to making any changes. 5. For pneumatic systems, verify proper main line pressure per manufacturer’s specifications. Check Points: 1. Valve filter out of service. 2. Remove and discard old cartridge. 3. Clean inside of housing. 4. Install new cartridge. 5. Open inlet valve and check for leaks. 6. Open outlet valve. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Replacement filter cartridge.

ELEC-ATS-01-01M Frequency: Monthly
Automatic Transfer Switches
Application: This standard card applies to Automatic Transfer Switches as part of the building electrical system and the emergency power system found in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Perform Monthly inspections following NFPA 110 procedures, outlined in Chapter 8, .8.4 section, Operational Inspection and Testing. Check Points: All tested parameters and setpoints shall be within manufacturer’s tolerances. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-ATS-01-01Y Frequency: Annually
Automatic Transfer Switches
Application: This standard card applies to Automatic Transfer Switches as part of the building electrical system and the emergency power system found in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform quarterly visual inspections concurrently with annual maintenance and testing. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. Perform ATS thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. 6. Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 7. Perform thermographic survey prior to annual maintenance testing. 8. Perform ATS maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.22.3 Emergency Systems, Automatic Transfer Switches. 9. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.22.3.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. While performing thermographic survey, follow the equipment arc flash labeling indications of ailable incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous” and perform operations in the following sequence:

  1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-BDT-01-01Y Frequency: Annually
Metal Enclosed Busways (Busduct)
Application: This standard card applies to thermographic survey of the metal enclosed busways as part of the electrical system in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Perform busway thermographic survey, following the ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-BDT-01-03Y Frequency: 3-Year
Metal Enclosed Busways (Busduct)
Application: This standard card applies to maintenance tests of metal enclosed busways as part of the electrical system in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. For indoor metal enclosed busways perform maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.4 Metal-Enclosed Busways. 6. For outdoor bus structures perform maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.21 Outdoor Bus Structures. 7. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.4.3 Test Values or Section 7.21.3 Test Values, whichever is applicable. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CAP-01-01Y Frequency: Annually
Capacitors
Application This standard applies to thermographic survey of capacitors as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s instruction. 3. Perform capacitor thermographic survey, following the ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CAP-01-03Y Frequency: 3-Year Capacitors Application This standard applies to maintenance tests of capacitors as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction (including time current characteristic curve). 5. Perform capacitor maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.20.1 Capacitors and Reactors, Capacitors. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.20.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CAP-02-01Y Annually
Reactors-Dry-Type, Thermographic Survey
Application This standard applies to thermographic survey of capacitors as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s instruction. 3. Perform capacitor thermographic survey, following the ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CAP-02-03Y Frequency: 3-Year
Reactors- Dry-Type
Application This standard applies to maintenance tests of capacitors as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction (including time current characteristic curve). 5. Perform capacitor maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.20.3.1 Capacitors and Reactors, Reactors Dry Type. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.20.3.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CAP-03-01M Frequency: Monthly
Reactors, Liquid-Filled, Oil Leakage
Application This standard applies to visual inspection of liquid-filled reactors. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, grounding, and required clearances. 5. Visually inspect for oil leaks. Check Points: All parameters shall be within manufacturer’s tolerances Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CAP-03-01Y Frequency: Annually
Reactors, Liquid-Filled, Oil Sampling
Application This standard applies to oil-filled reactors. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Perform monthly visual inspections concurrently with annual mechanical maintenance testing. 4. Perform reactor thermographic survey, following the ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. 5. Perform visual and mechanical inspections following the ANSI/NETA MTS2011 procedures outlined in Section 7.20.3.2.1 6. Remove oil sample of insulating liquid from the main tank or common tank following the ANSI/NETA MTS-2011 procedures outlined in Section 7.20.3.2.2.7. Check Points: 1. In regards to thermographic survey follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 2. Visual and mechanical inspection parameters shall be in accordance with manufacturer’s published data.. 3. Results of insulating liquid tests shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.20.3.2.3 Test Values Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers

  1. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CAP-03-03Y Frequency: 3-Year
Reactors, Liquid-Filled
Application This standard applies to maintenance tests of liquid-filled reactors as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction (including time current characteristic curve). 5. Perform capacitor maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.20.3.2 Capacitors and Reactors, Reactors, Liquid-Filled. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.20.3.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CBL-01-01Y Frequency: Annually
Cables, Low Voltage 600 Volt Maximum, Thermographic Survey Application This standard applies to thermographic survey of low voltage cables as part of the electrical system located in the building. Special Instructions: 7. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 8. Obtain and review manufacturer’s instruction. 9. Perform capacitor thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CBL-01-03Y Frequency: 3-Year
Cables, Low Voltage 600 Volt Maximum
Application This standard applies to maintenance tests of low voltage cables 600 volt maximum as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction (including time current characteristic curve). 5. Perform capacitor maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.3.2 Cables Low Voltage 600 Volt Maximum. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.3.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CBL-02-01Y Frequency: Annually
Cables, Medium Voltage
Application This standard applies to thermographic survey of medium voltage cables as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s instruction. 3. Perform capacitor thermographic survey, following the ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CBL-02-03Y Frequency: 3-Year
Cables, Medium- and High-Voltage
Application This standard applies to maintenance tests of medium voltage cables as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction (including time current characteristic curve). 5. Perform capacitor maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.3.3 Cables, Medium- and High-Voltage. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.3.3.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CKB-01-01Y Frequency: Annually
Circuit Breakers, Air, Insulated-Case/Molded-Case
Application This standard applies to the thermographic survey of low voltage (1,000 Volts or less) Air Insulated-Case/Molded-Case circuit breakers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Perform circuit breaker thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash abeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CKB-01-03Y Frequency: 3-Year
Circuit Breakers, Air, Insulated-Case/Molded-Case
Application This standard applies to maintenance testing of low voltage (1,000 Volts or less) Air Insulated-Case/Molded-Case circuit breakers. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform circuit breaker maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.6.1.1 Circuit Breakers, Air, Insulated Case/Molded case. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.6.1.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CKB-02-01Y Frequency: Annually
Circuit Breakers, Air, Low-Voltage Power
Application This standard applies to thermographic survey of low voltage (1,000 Volts or less) power circuit breakers. Special Instructions: 1. Schedule thermographic survey with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform circuit breaker thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CKB-02-03Y Frequency: 3-Year
Circuit Breakers, Air, Low-Voltage Power
Application This standard applies to maintenance testing of low voltage (1,000 Volts or less) power circuit breakers. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform circuit breaker maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.6.1.2 Circuit Breakers, Air, Low-Voltage Power. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.6.1.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CKB-03-01Y Frequency: Annually
Circuit Breakers, Air, Medium Voltage
Application This standard applies to thermographic survey of medium voltage (1,000 to 100,000 volts) Air Insulated circuit breakers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Perform circuit breaker thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements:: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CKB-03-03Y Frequency: 3-Year
Circuit Breakers, Air, Medium Voltage
Application This standard applies to maintenance tests of medium voltage (1,000 to 100,000 volts) Air Insulated circuit breakers. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform circuit breaker maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.6.1.3 Circuit Breakers, Air, MediumVoltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.6.1.3.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CKB-04-01M Frequency: Monthly
Circuit Breakers, Oil, Medium-Voltage
Application This standard applies to visual inspection of medium voltage (1,000 to 100,000 volts) Oil Insulated circuit breakers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, grounding, and required clearances. 5. Visually inspect for oil leaks. 6. Visually verify correct oil level in all tanks and bushings. 7. Verify that breather vents are clear. Check Points: All parameters shall be within manufacturer’s tolerances Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CKB-04-01Y Frequency: Annually
Circuit Breakers, Oil, Medium-Voltage
Application This standard applies to medium voltage (1,000 to 100,000 volts) Oil Insulated circuit breakers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Perform monthly visual inspections concurrently with annual mechanical maintenance testing. 4. Perform circuit breaker thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. 5. Perform visual and mechanical inspections following the ANSI/NETA MTS2011 procedures outlined in Section 7.6.2.1. 6. Remove oil sample of insulating liquid from the main tank or common tank following the ANSI/NETA MTS-2011 procedures outlined in Section 7.6.2.2.5. Check Points: 1. In regards to thermographic survey follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 2. Visual and mechanical inspection parameters shall be in accordance with manufacturer’s published data.. 3. Results of insulating liquid tests shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.6.2.3 Test Values Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers

  1. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CKB-04-03Y Frequency: 3-Year
Circuit Breakers, Oil, Medium-Voltage
Application This standard applies to maintenance tests of medium voltage (1,000 to 100,000 volts) Oil Insulated circuit breakers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Perform annual thermographic survey prior to 3-year electrical maintenance testing, if applicable 5. Schedule outage with operating personnel. 6. Perform circuit breaker maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.6.2 Circuit Breakers, Oil, MediumVoltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.6.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CKB-05-01Y Frequency: Annually
Circuit Breakers, Vacuum, Medium-Voltage
Application This standard applies to thermographic survey of medium voltage (1,000 to 100,000 volts) Oil Insulated circuit breakers. Special Instructions: 1. Perform these tests only if equipment is safely accessible for the survey. 2. Schedule thermographic survey with operating personnel. 3. Obtain and review manufacturer’s instruction (including time current characteristic curve). 4. Perform circuit breaker thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-CKB-05-03Y Frequency: 3-Year
Circuit Breakers, Vacuum, Medium-Voltage
Application This standard applies to maintenance tests of medium voltage (1,000 to 100,000 volts) vacuum circuit breakers. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing, if applicable 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform circuit breaker maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.6.3 Circuit Breakers, Vacuum, MediumVoltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.6.3.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-CLK-01-06M Frequency: Semi-annually
Clocks, Central System
Application: Clocks connected to central system are either digital, analog (pointer type), calendar clocks or special design clocks. These clock’s times are synchronized by a central time controller module usually installed within the building. These controllers often incorporate a feature that will synchronize the clocks through a wireless or wired connection with a regional office. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. This work should be done in spring and fall when time is changed from standard to “daylight savings time” in Spring and back one hour in Fall. Check points: 1. Clean dirt and dust from interior and exterior of cabinet. 2. Adjust relays, check transmission of time signal. 3. Tighten contacts and terminal screws. 4. Burnish contacts if necessary. 5. Perform work suggested by manufacturer’s instruction book. Recommended Tools, Materials, and Equipment. Standard Tools – Basic

ELEC-DCS-01-01M Frequency: Monthly
DC Battery System, Lead Acid
Application: This standard card applies to visual inspections for Direct Current Battery Systems using lead acid as the electrolyte. These can be flooded lead acid or valveregulated lead acid types. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule and coordinate work with operating personnel. 5. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. Check Points: Perform Visual Inspection in accordance with NETA Maintenance Testing Specifications Section 7.18.1.1 or 7.18.1.3. Test values for this maintenance item are also included in the respective NETA test section.

ELEC-DCS-01-01Y Frequency: Annually
DC Battery System, Lead Acid
Application: This standard card applies to visual inspections for Direct Current Battery Systems using lead acid as the electrolyte. These can be flooded lead acid or valveregulated lead acid types. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Perform monthly visual inspections concurrently with annual maintenance and testing. 5. Schedule and coordinate work with operating personnel. 6. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 7. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Check Points: Perform Mechanical and Electrical Inspection in accordance with NETA Maintenance Testing Specifications Section 7.18.1.1 or 7.18.1.3. Test values for this maintenance item are also included in the respective NETA test section.

ELEC-DCS-02-01M Frequency: Monthly
Primary Battery (Dry Cell)
Application: This standard is for primary type (1.5 volt dry cell, one time full discharge, nonrechargeable) batteries used for switch gear, control circuits, fire alarm systems, sprinkler supervisory systems and transformer supervisory systems where the source of DC power must be reliable. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The maximum load for a No. 6 primary battery shall not be more than two amperes per cell. Check Points: 1. Conduct a load voltage test by measuring and recording the voltage when applying a one test ohm load on an individual (1.5 volt) cell. 2. Replace the battery when the voltage is reduced below one volt. 3. Replace a 6-volt battery assembly when a test load of four ohms reduces the voltage below four volts. 4. Clean terminals and tighten connections and check condition of wiring. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. One ohm test load. 3. Soft cleaning cloths. 4. Replacement batteries.

ELEC-DCS-03-03M Frequency: Quarterly
Nickel Cadmium Battery
Application: This standard applies to nickel cadmium type batteries that are used for switch gear, control circuits, fire alarm systems, sprinkler supervisory systems and transformer supervisory systems that require a reliable source of DC power. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Never smoke or carry an open flame in or near the battery room or area. 5. Use caution in handling the electrolyte, it is harmful to the skin and clothing. 6. Never remove any connecting cables or straps while charger is on or there is a possibility of a load being on the batteries. 7. Wear acid resistant apron, gloves and plastic face shield when handling electrolyte. 8. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment.” Note the location of emergency eyewash and/or shower equipment. Check Points: 1. With the battery charger disconnected, measure voltage for entire battery and record results. 2. With the battery charger disconnected, conduct a load voltage test by measuring and recording the voltage of the entire battery with the battery carrying the full connected load. An artificial load equal to the full load connected to the battery may be used for this test. Under load, the battery voltage shall not fall below 1.42 volts per cell nominal. Measure cells individually if possible. 3. With the battery disconnected, conduct a discharge test by following the manufacturer’s instructions and measuring and recording the voltage of each cell while load testing the batteries for a minimum of 30 minutes. An

artificial load equal to the full load connected to the battery may be used for this test. The voltage shall not fall below the levels specified. 4. With the battery charger connected and the batteries fully charged, conduct a charger test by placing an amp meter in series with the battery under charge. The charging current shall be the manufacturer’s recommendation for the type of battery used. 5. Add distilled water to bring the electrolyte up to the proper level, and record the amount used. Abnormal use of water indicates overcharging. 6. Wipe salt and dirt accumulation from batteries with disposable cloth taking care not to drop foreign matter into batteries. 7. Clean terminals, tighten connections and check condition of wiring. 8. Check battery cable and battery supports for deterioration, paying special attention to wooden members. 9. Replace battery every three years. Dispose of old battery in accordance with all applicable Federal, state, and local regulations. Recommended Tools, Materials, and Equipment: 1. Tools Group B. 2. Electrolyte. 3. Soft cleaning cloths. 4. Acid resistant apron, gloves, and plastic face shield. 5. Emergency eye wash that provides at least 0.4 gallons/minute for at least 15 minutes.

ELEC-DCS-04-01M Frequency: Monthly
DC Battery System, Chargers
Application: This standard card applies to visual inspections for Direct Current Battery System Chargers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule and coordinate work with operating personnel. 5. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. Check Points: Perform Visual Inspection in accordance with NETA Maintenance Testing Specifications Section 7.18.2. Test values for this maintenance item are also included in the respective NETA test section.

ELEC-DCS-04-01Y Frequency: Annually
DC Battery System, Chargers
Application: This standard card applies to visual inspections for Direct Current Battery System Chargers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Perform monthly visual inspections concurrently with annual maintenance and testing. 5. Schedule and coordinate work with operating personnel. 6. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 7. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Check Points: Perform Mechanical and Electrical Inspection in accordance with NETA Maintenance Testing Specifications Section 7.18.2. Test values for this maintenance item are also included in the respective NETA test section.

ELEC-EMG-01-01M Frequency: Monthly
Emergency Generator, Electrical
Application: This standard card applies to emergency generators as part of the building electrical system and the emergency power system found in the building. This standard does not address the prime mover of the generator. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule and coordinate work with operating personnel. 5. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. Check Points: Perform Visual Inspection in accordance with NETA Maintenance Testing Specifications Section 7.22.1. Test values for this maintenance item are also included in the respective NETA test section.

ELEC-EMG-01-01Y Frequency: Annually
Emergency Generator, Electrical
Application: This standard card applies to emergency generators as part of the building electrical system and the emergency power system found in the building. This standard does not address the prime mover of the generator. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Perform monthly visual inspections concurrently with annual maintenance and testing. 5. Schedule and coordinate work with operating personnel. 6. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 7. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Children of this Piece of Equipment Emergency Generator, Mechanical (Prime Mover of Emergency Generator) Check Points: Perform Electrical Inspection in accordance with NETA Maintenance Testing Specifications Section 7.22.1. Test values for this maintenance item are also included in the respective NETA test section.

ELEC-GRD-01-01Y Frequency: Annually
Grounding Systems
Application This standard applies to Building Grounding Systems as part of the electrical system located in the building. Special Instructions: 1. Schedule grounding system inspections with operating personnel. 2. Verify ground system is in compliance with ANSI/NFPA 70 National Electrical Code, Article 250 3. Inspect physical and mechanical condition. 4. Inspect bolted electrical connections using low resistance ohmmeter or calibrated torque wrench. 5. Inspect anchorage. Check Points: Bolt torque values for electrical connections shall correspond to ANSI/NETA MTS2011 Table 100.12.1-4.

ELEC-GRD-01-03Y Frequency: 3-Year
Grounding Systems
Application This standard applies to Building Grounding Systems as part of the electrical system located in the building. Special Instructions: 1. Perform annual visual inspections concurrently with 3-year electrical maintenance and testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform grounding system maintenance tests following ANSI/NETA MTS2011 procedures, outlined in Section 7.13 Grounding Systems. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.13.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-ITR-01-01Y Frequency: Annually
Instrument Transformers
Application This standard applies to thermographic survey of Instrument Transformers located within the building. Special Instructions: 1. Schedule thermo graphic survey with operating personnel. 2. Perform these tests only if instrument transformers are easily accessible for survey. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Perform instrument transformer thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-ITR-01-03Y Frequency: 3-Year
Instrument Transformers
Application This standard applies to maintenance tests of Instrument Transformers located within the building. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform instrument transformer maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.10 Instrument Transformers. Check Points: See Special Instructions Safety requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-LTG-01-03M Frequency: Quarterly
Dimmer and Control, Stage and General Lighting
Application: This standard card applies to dimmers and control panels, both at unit and remotely located, used to control light levels of general and special lights in auditoriums, large conference rooms, etc. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: Dimmer Unit: 1. Remove necessary access covers and panels. 2. Check supply voltage. 3. Tighten all connections to main breaker, sub breakers, contactors, etc. 4. Check operation of contactors, clean and adjust as necessary. 5. Check operation of drive motor and drive mechanism. Lubricate as necessary. 6. Check for discoloration and overheating on rheostat and printed circuit board. 7. Check all wiring, including control wiring for deterioration, overheating, etc. 8. Clean interior of housing. 9. Clean rheostat contact surface. 10. Check dimmer rating against actual load. Control Unit (Local and Remote): 1. Remove, disassemble and clean slide bars. 2. Check indicator lamps, replace as necessary. 3. Clean interior of unit.

  1. Check all connection to slide bars, terminal strip switches, etc. 5. Check calibration of voltage meters. 6. Lubricate control buttons, slide bars and switches. 7. Reassemble unit. 8. Test operation of dimmer throughout full range noting light fluttering or level difference (required for each control unit). 9. If applicable, check time clock , programming and time schedules. 10. If applicable , check each relay form the BAS interface via BAS front end. 11. Replace covers on dimmer unit after making any adjustments. 12. Clean exterior of units. Recommended Tools, Materials, and Equipment: 1. Standard tools. 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Multimeter. 4. Amp-meter. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

ELEC-LTG-02-02Y Frequency: 2-Year
Fluorescent Lighting Fixture, Washing and Relamping
Application: This standard card applies to the group replacement of standard fluorescent lamps in office areas of a single building. Work performed by a two-person crew. Time is allowed for disassembly, washing, reassembly, and replacement of lamps in each fixture. For types of fixtures that cannot be disassembled, time is allowed to clean in place. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. This standard requires that the fluorescent light fixtures be washed every 2.5 years. However, since the expected life of the fluorescent light tubes are in excess of five years, the tubes should be replaced only every other washing. The existing tubes should be reused on the interim washing. 6. Turn off branch circuit at panel or individual light switch in room as appropriate. Do not attempt to wash energized lights. 7. Follow manufacturer’s instructions on specular reflectors and specular parabolic lens (diffusers). Use gloves during handling because fingerprints are difficult to remove. Do not use industrial detergents as they will damage these items. 8. Ensure that the replacement lamps are of the same type and color as removed from the fixture. T-12 and T-8 lamps require different ballasts. Using the wrong lamp in a fixture will cause the lighting system to not function properly and will lead to premature failure. Wherever possible, us energy efficient T-8 lamps and electronic ballasts. 9. If the ballast requires replacement, use only T-8 lamps and electronic ballasts as replacements. Replace ballasts in the entire fixture for uniform lighting appearance.

  1. The disposal of old lamps may be regulated by state or local governments, depending on the number of lamps removed. Lamps should be disposed of as universal waste in accordance with local, state requirements. Refer to Appendix G for the Universal Waste Guide. 11. PCB fluorescent light ballasts must be removed and disposed of in accordance with 40 CFR 761, and state and local regulations. Check Points: 1. Disassemble fixture. Wash all removable parts with warm water and a mild detergent. Rinse and allow to drip dry. 2. Damp wipe remaining body of fixture in place. 3. Remove old fluorescent lamps and install new lamps. 4. Test light fixtures. Replace starters and ballasts where necessary. Note and report any needed electrical repairs. 5. Reassemble all removable parts to fixture. 6. Clean up area and remove any trash. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic. 2. Ladder constructed in accordance with OSHA/ANSI standards. Check the ladder for defects. Do not use defective ladders. 3. Cleaning materials – consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

ELEC-LTG-02-05Y Frequency: 5-Year
Fluorescent Lighting Fixture, Relamping Only
Application: This standard card applies to the group replacement of standard fluorescent lamps in office areas of a single building. Work performed by a two-person crew. Fixture height is such that the work can be accomplished with the use of an eight foot stepladder. Group relamping on a more frequent basis than once every five years must be justified and request for some submitted to Central Office through the regional office for approval. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Turn off branch circuit at panel or individual light switch in room as appropriate. 6. The disposal of old lamps may be regulated by state or local governments, depending on the number of lamps removed. Lamps should be disposed of as universal waste in accordance with local, state requirements. Refer to Appendix G for the Universal Waste Guide. 7. PCB fluorescent light ballasts must be removed and disposed of in accordance with 40 CFR 761, and state and local regulations. 8. Ensure that the replacement lamps are of the same type and color as removed from the fixture. T-12 and T-8 lamps require different ballasts. Using the wrong lamp in a fixture will cause the lighting system to not function properly and will lead to premature failure. Wherever possible, us energy efficient T-8 lamps and electronic ballasts. 9. If the ballast requires replacement, use only T-8 lamps and electronic ballasts as replacements. Replace ballasts in the entire fixture for uniform lighting appearance. Check Points: 1. Remove louver or diffuser as necessary.

  1. Remove all fluorescent lamps and install new lamps. 3. Test light fixture. Replace starters or ballasts where necessary. 4. Note and report any needed electrical repairs. 5. Reassemble louver or diffuser as required. 6. Clean up area and remove any trash. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic. 2. Ladder constructed in accordance with OSHA/ANSI standards. Check the ladder for defects. Do not use defective ladders.

ELEC-LTG-03-01Y Frequency: Annually
Lighting, Special Feature
Application: This standard card applies to special lighting fixtures such as found in lobbies, porticos, court rooms, and auditoriums, and for fixtures above 12 feet. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Clean fixture thoroughly. 2. Check all sockets, replace as needed. 3. Inspect anchors or anchoring device, tighten as needed. 4. Examine fixture glass, side panels, diffusers, etc., for cracks, breaks, etc. Replace if necessary. 5. If group relamping is due, change all lamps; otherwise, replace only those that are burned out. 6. Check operation. 7. Clean up work area and remove all debris. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic. 2. Ladder constructed in accordance with OSHA/ANSI standards. Check the ladder for defects. Do not use defective ladders.

ELEC-LTG-04-06M Frequency: Annually
Lighting, Outside Incandescent and Fluorescent
Application: This standard card applies to parking lot, street, loading dock, and perimeter lighting, and provides for group relamping and maintenance of such fixtures outside the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Open and tag switch. 2. Remove old lamp and clean fixture including reflector, refractor, and globes. 3. Inspect condition of wiring, contacts, terminals, and sockets. Look for evidence of overheating. 4. Install new lamp and assemble checking gaskets for proper seat. 5. Test operation of automatic switches. 6. Inspect lamp standards and mounting devices. 7. Clean up work area and remove all trash. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic. 2. Ladder constructed in accordance with OSHA/ANSI standards. Check the ladder for defects. Do not use defective ladders.

ELEC-LTG-04-05Y Frequency: 5-Year
Lighting, Outside Mercury Vapor , High Pressure Sodium or Metal Halide Application: This standard card applies to parking lot, street, loading dock, and perimeter lighting, and provides for group relamping and maintenance of such fixtures outside the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Check Points: 1. Open and tag switch. 2. Remove old lamp and clean fixture including reflector, refractor, and globes. 3. Inspect condition of wiring, contacts, terminals, and sockets. Look for evidence of overheating. 4. Install new lamp and assemble fixture checking gaskets for proper seat. 5. Test operation of automatic switches. 6. Inspect lamp standards and mounting devices. 7. Clean up work area and remove all trash. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic. 2. Ladder constructed in accordance with OSHA/ANSI standards. Check the ladder for defects. Do not use defective ladders.

ELEC-LTG-05-01M Frequency: Monthly
Spotlights, Fixed and Portable
Application: This standard card applies to both fixed and portable spotlights used in the lighting and highlighting of performers and stage areas in auditoriums and large conference rooms. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Keep record of hour usage of spotlight bulb, noting its estimated life and date of installation. Check Points: 1. Check power supply cord and connection to plug. 2. Remove necessary access panels. 3. Check connection at, and operation of switch. Lubricate as needed. 4. Clean lens and reflector. 5. Lubricate and check operation of all slide rods, adjust rods and linkage. 6. Check bulb and socket, clean or change as required. 7. Clean housing interior. 8. Clean and check operation of color slides. 9. Replace removed access panels. 10. Lubricate wheels and pivot points as required. 11. Check mounting supports. 12. Clean exterior of unit. 13. Test. 14. Clean up work area.

Recommended Tools, Materials, and Equipment: 1. Tool Group A 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Ladder constructed in accordance with OSHA/ANSI standards. Check the ladder for defects. Do not use defective ladders.

ELEC-LTG-06-03M Frequency: Quarterly
Emergency Lighting, Closed Systems
Application: This standard card applies to closed system emergency lights and Exit lights, inclusive of fluorescent ballasts that contain battery backup. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Use acid-resistant gloves, apron and plastic face shield. 6. Do not spark battery terminals or smoke while performing maintenance. Check Points: 1. Inspect for structural defects and deposits. 2. Clean off corrosion deposits and apply silicone grease to terminals. 3. Push test buttons and observe light operation. (See manufacturer’s instructions.) 4. Check vent holes. 5. Clean exterior with dry cloth. 6. Disconnect power to check operation. The battery shall maintain the light output for 1.5 hours. If it does not, it needs to be replaced. 7. Record battery cell voltage. Replace cells below manufacturer’s recommended low level. 8. If unit has to be discarded, review the Material Safety Data Sheet (MSDS) for proper disposal of battery and electrolyte. 9. Clean up work area. 10. For Exit lights check for proper arrow direction. Recommended Tools, Materials, and Equipment: 1. Tool Group B.

  1. Cleaning equipment and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Direct Current Volt Meter. 4. Hydrometer. 5. Silicone grease. 6. Acid resistant apron, gloves, and plastic face shield.

ELEC-LTG-07-03M Frequency: Quarterly
Emergency Lighting, Wet Cell
Application: This standard card applies to wet cell emergency lights and Exit lights. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Do not spark battery terminals or smoke while performing maintenance. 6. Use acid-resistant gloves, apron and plastic face shield. 7. Consult the Material Safety Data Sheet (MSDS) for the electrolyte and proper personal protective equipment (PPE). 8. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment.” Note the location of emergency eyewash and/or shower equipment. 9. When practicable, remove light units to shop area for inspection and maintenance. 10. Refer to the latest editions of the American National Standards Institute/National Fire Protection Associate (ANSI/NFPA) publication 70B, “Electrical Equipment Maintenance” and the Inter National Electrical Testing Association publication, “Maintenance Testing Specifications”, as applicable. Check Points: 1. Inspect for structural defects and deposits. 2. Clean off corrosion deposits and apply silicone grease to terminals. 3. Inspect battery water level and take specific gravity readings. If reading is less than specified by battery manufacturer, the battery should be replaced with a freshly charged one. The old battery should be charged and tested before discarding. Review the MSDS for proper disposal of battery and electrolyte.

  1. Add distilled water to raise electrolyte to proper level. 5. Push test buttons and observe light operation. (See manufacturer’s instructions.) 6. Check vent holes. 7. Clean exterior with dry cloth, paint if necessary with an appropriate type and color paint. Caution: Do not paint over any indicator lights. 8. Unplug unit to check operation. The battery should maintain the light output for 1.5 hours. 9. For Exit lights check for proper arrow direction. 10. Clean up work area. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Distilled water. 3. Cleaning equipment and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 4. Hydrometer. 5. Silicone grease. 6. Acid resistant apron, gloves, and plastic face shield. 7. Emergency eye wash that provides at least 0.4 gallons/minute for at least 15 minutes. 8. If unit has to be discarded, review the (MSDS) for proper disposal of battery and electrolyte.

ELEC-MCC-01-01Y Frequency: Annually
Low Voltage Motor Starters
Application This standard applies to thermographic survey of Low Voltage (1,000 Volts or less) Motor Starters as part of the electrical system located in the building. These are typically located in a Motor Control Center in an equipment or electrical room. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule thermographic survey with operating personnel. 3. Obtain and review manufacturer’s instruction s 4. Perform motor starter thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-MCC-01-03Y Frequency: 3-Year
Low Voltage Motor Starters
Application This standard applies to maintenance testing of Low Voltage (1,000 Volts or less) Motor Starters as part of the electrical system located in the building. These are typically located in a Motor Control Center in an equipment or electrical room. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform motor starter maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.16.1.1 Motor Control, Motor starters, Low-Voltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.16.1.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-MCC-02-01Y Frequency: Annually
Medium Voltage Motor Starters
Application This standard applies to thermographic survey of the Medium Voltage (1,000 to 100,000 volts) Motor Starters as part of the electrical located in the building. These are typically located in a Motor Control Center in an equipment or electrical room. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule thermographic survey with operating personnel. 3. Perform motor starter thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-MCC-02-03Y Frequency: 3-Year
Medium Voltage Motor Starters
Application This standard applies to maintenance testing of Medium Voltage (1,000 to 100,000 volts) Motor Starters as part of the electrical system located in the building. These are typically located in a Motor Control Center in an equipment or electrical room. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform motor starter maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.16.1.2 Motor control, Motor Starters, Medium-Voltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.16.1.2.3 Test Values.. Safety requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-MCC-03-01Y Frequency: Annually
Low Voltage Motor Control Center
Application This standard applies to thermographic survey of Low Voltage (1,000 Volts or less) Motor Control Centers as part of the electrical system located in the building. These are typically located in an equipment or electrical room. Special Instructions: Refer to Standard ELEC-SWB-01-01Y for instructions, check points and safety requirements.

ELEC-MCC-03-03Y Frequency: 3-Year
Low Voltage Motor Control Center
Application This standard applies to maintenance tests of Low Voltage (1,000 Volts or less) Motor Control Centers as part of the electrical system located in the building. These are typically located in an equipment or electrical room. Special Instructions: Refer to Standard ELEC-SWB-01-03Y for instructions, check points and safety requirements.

ELEC-MCC-04-01Y Frequency: Annually
Medium Voltage Motor Control Center
Application This standard applies to thermographic survey of Medium Voltage (1,000 to 100,000 volts) Motor Control Centers as part of the electrical system located in the building. These are typically located in an equipment or electrical room. Special Instructions: Refer to Standard ELEC-SWB-01-01Y for instructions, check points and safety requirements.

ELEC-MCC-04-03Y Frequency: 3-Year
Medium Voltage Motor Control Center
Application This standard applies to maintenance tests of Medium Voltage (1,000 to 100,000 volts) Motor Control Centers as part of the electrical system located in the building. These are typically located in an equipment or electrical room. Special Instructions: Refer to Standard ELEC-SWB-01-03Y for instructions, check points and safety requirements.

ELEC-MOT-01-01M Frequency: Monthly
Motors, Preventative Maintenance
Application This standard is for induction, wound-rotor and synchronous motors in excess of 1 horsepower. The maintenance specified by this standard is not intended to require disassembly of the motor. This standard does not normally apply to motors rated less than 1 horsepower, for which maintenance is normally limited to cleaning and lubrication, and is done with the maintenance of the driven machine (Parent). Special Instructions: 1. Schedule shutdown with operating personnel, as needed. 2. Review manufacturer’s instructions. 3. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 4. In absence of manufacturer’s instructions, use NETA Maintenance Testing Specifications as a guide. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Check Points: Perform Visual Inspection in accordance with NETA Maintenance Testing Specifications Section 7.15.1 for Induction Motors or Section 7.15.2 for Synchronous Motors. Test values for this maintenance item are also included in the respective NETA test section. Recommended Tools, Materials, and Equipment: 1. Tool Group B 2. Gloves.

ELEC-MOT-01-01Y Frequency: Annually
Motors, Preventative Maintenance
Application This standard is for induction, wound-rotor and synchronous motors in excess of 1 horsepower. The maintenance specified by this standard is not intended to require disassembly of the motor. This standard does not normally apply to motors rated less than 1 horsepower, for which maintenance is normally limited to cleaning and lubrication, and is done with the maintenance of the driven machine (Parent). Special Instructions: 1. Perform monthly visual inspections concurrently with annual maintenance and testing. 2. Schedule shutdown with operating personnel, as needed. 3. Review manufacturer’s instructions. 4. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 5. In absence of manufacturer’s instructions, use NETA Maintenance Testing Specifications as a guide. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Mechanical Inspection: Perform Mechanical Inspection in accordance with NETA Maintenance Testing Specifications Section 7.15.1 for Induction Motors or Section 7.15.2 for Synchronous Motors. Test values for this maintenance item are also included in the respective NETA test section. Recommended Tools, Materials, and Equipment: 1. Tool Group B 2. Gloves.

ELEC-MOT-01-02Y Frequency: 2-Year
Motors, Preventative Maintenance
Application This standard is for induction, wound-rotor and synchronous motors in excess of 1 horsepower. The maintenance specified by this standard is not intended to require disassembly of the motor. This standard does not normally apply to motors rated less than 1 horsepower, for which maintenance is normally limited to cleaning and lubrication, and is done with the maintenance of the driven machine (Parent). Special Instructions: 1. Perform monthly visual inspections and annual mechanical maintenance concurrently with 2-year electrical maintenance and testing. 2. Schedule shutdown with operating personnel, as needed. 3. Review manufacturer’s instructions. 4. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 5. In absence of manufacturer’s instructions, use NETA Maintenance Testing Specifications as a guide. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Check Points: Perform Electrical Inspection in accordance with NETA Maintenance Testing Specifications Section 7.15.1 for Induction Motors or Section 7.15.2 for Synchronous Motors. Test values for this maintenance item are also included in the respective NETA test section. Recommended Tools, Materials, and Equipment: 1. Tool Group B 2. Tachometer

  1. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 5. Vacuum with long bottle type brush attachment. 6. Safety goggles. 7. Gloves.

ELEC-MTR-01-01Y Frequency: Annually
Metering Devices
Application This standard applies to thermographic survey of all electric metering devices located in switchboards within the building. Special Instructions: 1. Obtain and review manufacturer’s instruction. 2. Perform meters thermographic survey, following the ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 3. De-energize equipment 4. Remove covers 5. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 6. Perform thermographic survey 7. De-energize equipment 8. Re-install covers 9. Re-energize equipment

ELEC-MTR-01-03Y Frequency: 3-Year
Metering Devices
Application This standard applies to maintenance testing of all electric metering devices located in switchboards within the building. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. Obtain and review manufacturer’s instruction (including time current characteristic curve). 4. Perform metering device maintenance tests following ANSI/NETA MTS2011 procedures, outlined in Sections 7.11.1 Metering Devices, Electromechanical and Solid-State or 7.11.2 Metering Devices, Microprocessor Based. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Sections 7.11.1.3 or 7.11.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-MTR-02-01Y Frequency: Annually
Advanced Metering
Application This standard applies to maintenance testing of advanced metering devices. Special Instructions: 1. If meter is equipped with a service disconnect, remove power and check terminals and connectors for tightness 2. Verify that the wire is properly stripped and that there is no excessive bare wire or pinching of the insulation in the terminals 3. Install any firmware updates 4. Inspect for signs of moisture, corrosion, dirt or contaminants, wear or cracking of insulation, presence of nameplate and that the meter is correct class for service 5. Verify the control is firmly mounted, and that wiring is neat and orderly 6. Obtain a current one-line drawing and verify meter is connected to the proper circuit. A copy of the one-line should be mounted or in a document sleeve in the vicinity of the meter. Verify wiring is to correct legs. Verify CTs are mounted to the correct legs and have the correct polarity 7. Check the condition of any fuses 8. Check for visible signs of overheating on wiring and terminals 9. Perform thermal imaging 10. Verify that the RMS voltage indicated by the meter agrees with the reading on a calibrated handheld meter between phases and phase to ground Check Points: See Special Instructions. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-NWP-01-01Y Frequency: Annually
Network Protectors, 600V Class
Application This standard applies to Network Protectors, 600V class. Special Instructions: Refer to Standard ELEC-CKB-01-01Y and ELEC-CKB-01-03Y for instructions, check points and safety requirements.

ELEC-PVS-01-06M Frequency: Semi-annually
Photovoltaic Systems
Application This standard applies to maintenance testing of photovoltaic systems. Special Instructions: 1. Remove any debris. Clean PV panels per manufacturer’s recommendations. At a minimum, rinse with water to remove accumulated dust, etc. 2. Perform visual inspection of combiner boxes and control panels. Clean combiner boxes and control panels using compressed air and vacuum. Verify wiring is neat and orderly, Panduit and control covers are in place. 3. Test PV arrays voltage/current at the combiner boxes 4. Inspect components for moisture, verify proper operation of any panel temperature controls. 5. Grease actuator gears and top off hydraulic fluid on tracker components (if applicable). 6. Test of SCADA and meterological connections and signal strength. 7. Install any software, firmware updates. 8. Inspect cables for binding or wear (tracking systems). 9. Check and calibrate sensors, verify operation of wind sensors (tracking panels should “flatten” during high wind conditions).

ELEC-REG-01-01M Frequency: Monthly
Step-Voltage Regulators
Application This standard applies to visual inspections of Step Voltage Regulators located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, and grounding. 5. Visually inspect for oil leaks. 6. Visually verify correct oil level in all tanks and bushings. Check Points: All parameters shall be within manufacturer’s recommended tolerances. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-REG-01-01Y Frequency: Annually
Step-Voltage Regulators
Application This standard applies to Step Voltage Regulators located in the building. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform step-voltage regulator thermographic survey, following ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY 5. Perform visual and mechanical inspections following the ANSI/NETA MTS2011 procedures outlined in Section 7.12.1.1. 6. Remove oil sample of insulating liquid from the main tank or common tank following the ANSI/NETA MTS-2011 procedures outlined in Section 7.12.1.1.12. Check Points: 1. In regards to thermographic survey follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 2. Visual and mechanical inspection parameters shall be in accordance with manufacturer’s published data.. 3. Results of insulating liquid tests shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.12.1.1.3 Test Values Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers

  1. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-REG-01-02Y Frequency: 2-Year
Step-Voltage Regulators
Application This standard applies to maintenance tests of Step Voltage Regulators located in the building. Special Instructions: 1. Perform monthly and annual inspections concurrently with 3-year electrical maintenance testing. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 5. Review manufacturer’s instructions for all system components. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Perform step voltage regulator maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.12.1.1 Regulating Apparatus, Voltage, Step-Voltage Regulators Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.12.1.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work

 

ELEC-REG-02-01M Frequency: Monthly
Induction Regulators
Application This standard applies to visual inspections of Induction Regulators located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, and grounding. 5. Visually inspect for oil leaks. 6. Visually verify correct oil level in all tanks and bushings. Check Points: All parameters shall be within manufacturer’s recommended tolerances. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-REG-02-01Y Frequency: Annually
Induction Regulators
Application This standard applies to Induction Regulators located in the building. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform induction regulator thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. 5. Perform visual and mechanical inspections following the ANSI/NETA MTS2011 procedures outlined in Section 7.12.1.2. 6. Remove oil sample of insulating liquid from the main tank or common tank following the ANSI/NETA MTS-2011 procedures outlined in Section 7.12.1.2.12. Check Points: 1. In regards to thermographic survey follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 2. Visual and mechanical inspection parameters shall be in accordance with manufacturer’s published data.. 3. Results of insulating liquid tests shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.12.1.2.3 Test Values Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If none are provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary

  1. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-REG-02-03Y Frequency: 3-Year
Induction Regulators
Application This standard applies to maintenance tests of Induction Regulators located in the building. Special Instructions: 1. Perform monthly and annual inspections concurrently with 3-year electrical maintenance testing. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 5. Review manufacturer’s instructions for all system components. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Perform inductive regulator maintenance tests following ANSI/NETA MTS2011 procedures, outlined in Section 7.12.1.2 Regulating Apparatus, Voltage, Induction Regulators. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.12.1.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-REG-03-01M Frequency: Monthly
Load Tap-changers
Application This standard applies to visual inspections of Load Tap-changers as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, grounding, and required clearances. 5. Visually inspect for oil leaks. 6. Visually verify correct oil level in all tanks. Check Points: All parameters shall be in accordance with manufacturer’s published data. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-REG-03-01Y Frequency: Annually
Load Tap-changers
Application This standard applies to Load Tap-changers as part of the electrical system located in the building. Special Instructions: 1. Perform monthly visual inspections concurrently with annual mechanical maintenance testing. 2. Schedule work with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Perform load tap changer thermographic survey, following ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY 6. Perform visual and mechanical inspections following the ANSI/NETA MTS2011 procedures outlined in Section 7.12.3.1. 7. Remove oil sample of insulating liquid from the main tank or common tank following the ANSI/NETA MTS-2011 procedures outlined in Section 7.12.3.2.7. Check Points: 1. In regards to thermographic survey follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 2. Visual and mechanical inspection parameters shall be in accordance with manufacturer’s published data.. 3. Results of insulating liquid tests shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.12.3..3 Test Values Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If none are provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers

  1. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-REG-03-03Y Frequency: 3-Year
Load Tap-changers
Application This standard applies to maintenance tests of Load Tap-changers as part of the electrical system located in the building. Special Instructions: 1. Perform monthly visual inspections and annual mechanical maintenance concurrently with 3-year electrical maintenance testing. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 5. Review manufacturer’s instructions for all system components. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Perform load tap changer maintenance tests following ANSI/NETA MTS2011 procedures, outlined in Section 7.12.3 Regulating Apparatus, Load Tap-Changers Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.12.3.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-RLY-01-01Y Frequency: Annually
Protective Relays, Electrical Service, All Types
Application: This standard card applies to all electrical system Protective Relays installed in the building. Special Instructions: 1. Schedule and coordinate work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Obtain and review manufacturer’s instructions, circuit diagrams for relay and test set. 6. Perform protective relay maintenance tests following ANSI/NETA MTS2011 procedures, outlined in Section 7.9.1 Protective Relays, Electromechanical and Solid-State or Section 7.9.2 Protective Relays, Microprocessor-Based whichever is applicable. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.9.1.3 Test Values or Section 7.9.2.3 Test Values whichever is applicable.

ELEC-SRG-01-01Y Frequency: Annually
LV Surge Arresters
Application This standard applies to thermographic survey of Low Voltage (1,000 Volts or less) Surge Arrester Devices as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s instruction (including time current characteristic curve). 3. Perform surge arrester thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SRG-01-03Y Frequency: 3-Year
LV Surge Arresters
Application This standard applies to maintenance tests of Low Voltage (1,000 Volts or less) Surge Arrester Devices as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction (including time current characteristic curve). 5. Perform surge arrester maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.19.1 Surge Arrester, Low-Voltage Surge Protection Devices. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.19.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SRG-02-01Y Frequency: Annually
Medium Voltage Surge Arresters
Application This standard applies to thermographic survey of Medium Voltage Surge Arrester Devices as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s instruction (including time current characteristic curve). 3. Perform surge arrester thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SRG-02-03Y Frequency: 3-Year
Medium Voltage Surge Arresters
Application This standard applies to maintenance tests of Medium Voltage Surge Arrester Devices as part of the electrical system located in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule outage with operating personnel. 4. Obtain and review manufacturer’s instruction (including time current characteristic curve). 5. Perform surge arrester maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.19.2 Surge Arresters, Medium- and HighVoltage Surge Protection Devices. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.19.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWB-01-01Y Frequency: Annually
Switchgear and Switchboard Assemblies
Application: This standard card applies to thermographic survey of electrical switchgear and switchboard assemblies located throughout the building or site. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Perform switchgear thermographic survey, following the ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: 1. Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SWB-01-03Y Frequency: 3-Year
Switchgear and Switchboard Assemblies
Application: This standard card applies to maintenance tests of electrical switchgear and switchboard assemblies located throughout the building or site. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. Perform switchgear maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.1 Switchgear and Switchboard Assemblies. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.1.3 Test Values. Safety requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-01-01Y Frequency: Annually
Low-Voltage Air Switches
Application This standard applies to thermographic survey of Low-Voltage Air Switches. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform switch thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SWT-01-03Y Frequency: 3-Year
Low-Voltage Air Switches
Application This standard applies to maintenance testing of Low-Voltage Air Switches. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform switch maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.5.1.1 Switches, Air, Low-Voltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.1.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-02-01Y Frequency: Annually
Switches, Air, Medium-Voltage, Metal-Enclosed
Application This standard applies to thermographic survey of Medium-Voltage Metal-Enclosed Switches. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform circuit breaker thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: 1. Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SWT-02-03Y Frequency: 3-Year
Switches, Air Medium-Voltage, Metal-Enclosed
Application This standard applies to maintenance testing of Medium-Voltage Metal-Enclosed Switches. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform switch maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.5.1.2 Switches, Air, Medium-Voltage, Metal-Enclosed. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.1.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-03-01Y Frequency: Annually
Medium- and High-Voltage Open Switches
Application This standard applies to thermographic survey of Medium- and High-Voltage Open Switches. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform switch thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SWT-03-03Y Frequency: 3-Year
Medium- and High-Voltage Open Switches
Application This standard applies to maintenance testing of Medium- and High-Voltage Open Switches. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform switch maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.5.1.3 Switches, Air, Medium- and HighVoltage, Open. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.1.3.3 Test Values. Safety requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-04-01M Frequency: Monthly
Medium-Voltage Oil Switches
Application This standard applies to visual inspection of Medium-Voltage Oil Switches. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, grounding, and required clearances. 5. Visually inspect for oil leaks. 6. Visually verify correct oil level in all tanks and bushings. 7. Verify that breather vents are clear. Check Points: All parameters shall be in accordance with manufacturer’s published data. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-04-01Y Frequency: Annually
Medium-Voltage Oil Switches
Application This standard applies to Medium-Voltage Oil Switches. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform soil switch thermographic survey, following ANSI/NETA MTS2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY 5. Perform visual and mechanical inspections following the ANSI/NETA MTS2011 procedures outlined in Section 7.5.2.1. 6. Remove oil sample of insulating liquid from the main tank or common tank following the ANSI/NETA MTS-2011 procedures outlined in Section 7.5.2.2.6. Check Points: 1. In regard to thermographic survey follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 2. Visual and mechanical inspection parameters shall be in accordance with manufacturer’s published data.. 3. Results of insulating liquid tests shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.2.3 Test Values Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If none are provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment

  1. Re-install covers 7. Re-energize equipment

ELEC-SWT-04-03Y Frequency: 3 -Year
Medium-Voltage Oil Switches
Application This standard applies to maintenance testing of Medium-Voltage Oil Switches. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform oil switch maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.5.2 Switches, Oil, Medium-Voltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-05-01Y Frequency: Annually
Medium-Voltage Vacuum Switches
Application This standard applies to thermographic survey of Medium-Voltage Vacuum Switches. Special Instructions: 1. Perform these tests only if equipment is safely accessible for the survey. 2. Schedule work with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Perform vacuum switch thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SWT-05-03Y Frequency: 3-Year
Medium-Voltage Vacuum Switches
Application This standard applies to maintenance tests of Medium-Voltage Vacuum Switches. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform vacuum switch maintenance tests following ANSI/NETA MTS2011 procedures, outlined in Section 7.5.3 Switches, Vacuum, MediumVoltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.3.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-06-01M Frequency: Monthly
Medium-Voltage SF-6 Switches
Application This standard applies to visual inspections of Medium-Voltage SF-6 Switches. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, grounding, and required clearances. 5. Inspect SF6 gas pressure alarms. 6. Test for SF6 gas leaks in accordance with manufacturer’s published data. Check Points: All parameters shall be in accordance with manufacturer’s published data. Safety Requirements Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-06-01Y Frequency: Annually
Medium-Voltage SF-6 Switches
Application This standard applies to thermographic survey of Medium-Voltage SF-6 Switches. Special Instructions: 1. Perform these tests only if equipment is safely accessible for the survey. 2. Schedule work with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Perform switch thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SWT-06-03Y Frequency: 3-Year
Medium-Voltage SF-6 Switches
Application This standard applies to maintenance testing of Medium-Voltage SF-6 Switches. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform switch maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.5.4 Switches, SF6, Medium-Voltage. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.4.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-SWT-07-01Y Frequency: Annually
Cutout, Switches
Application This standard applies to thermographic survey of Cutout Switches. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform switch thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-SWT-07-03Y Frequency: 3-Year
Cutout, Switches
Application This standard applies to maintenance testing of Cutout Switches. Special Instructions: 1. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 2. Schedule outage with operating personnel. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 4. Review manufacturer’s instructions for all system components. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Perform switch maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.5.5 Switches, Cutouts. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.5.5.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-TRN-01-01Y Frequency: Annually
Small Dry Transformers
Application: This standard card applies to annual thermographic survey of small dry transformers with windings rated 600 volts or less and sizes equal to or less than 167 kVA single-phase or 500 kVA three-phase. Special Instructions: 1. Perform these tests only if equipment is safely accessible for the survey. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Perform transformer thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-TRN-01-03Y Frequency: 3-Year
Small Dry Transformers
Application: This standard card applies to maintenance testing of small dry transformers with windings rated 600 volts or less and sizes equal to or less than 167 kVA singlephase or 500 kVA three-phase. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. Perform transformer maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.2.1.1 Transformers, Dry Type, AirCooled, Low-Voltage, Small. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.2.1.1.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-TRN-02-01Y Frequency: Annually
Large Dry Transformers
Application: This standard card applies to annual thermographic survey of large dry transformers with windings rated higher than 600 volts and low-voltage transformers larger than 167 kVA single-phase or 500 kVA three-phase. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform these tests only if equipment is safely accessible for the survey. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. Perform transformer thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary 4. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-TRN-02-03Y Frequency: 3-Year
Large Dry Transformers
Application: This standard card applies to maintenance testing of large dry transformers with windings rated higher than 600 volts and low-voltage transformers larger than 167 kVA single-phase or 500 kVA three-phase. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. Perform transformer maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.2.1.2 Transformers, Dry Type, AirCooled, Large. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.2.1.2.3 Test Values. Safety Requirements Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-TRN-03-01M Frequency: Monthly
Transformers, Liquid-Filled
Application: This standard card applies to visual inspections for liquid filled transformers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Visually inspect physical and mechanical condition 4. Visually inspect anchorage, alignment, and grounding. 5. Visually inspect for oil leaks. 6. Visually verify correct oil level in all tanks and bushings. 7. Verify that positive pressure is maintained on gas-blanketed transformers. Check Points: All parameters shall be in accordance with manufacturer’s published data. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-TRN-03-01Y Frequency: Annually
Transformers, Liquid-Filled
Application: This standard card applies to the annual inspections and testing for liquid filled transformers. Special Instructions: 1. Schedule work with operating personnel. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions for all system components. 4. Perform step-voltage regulator thermographic survey, following ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY 5. Perform visual and mechanical inspections following the ANSI/NETA MTS2011 procedures outlined in Section 7.2.2.1. 6. Remove oil sample of insulating liquid following the ANSI/NETA MTS-2011 procedures outlined in Section 7.2.2.2.10 and 11. Check Points: 1. In regard to thermographic survey follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. 2. Visual and mechanical inspection parameters shall be in accordance with manufacturer’s published data.. 3. Results of insulating liquid tests shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.2.2.3 Test Values Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work. Follow the equipment arc flash labeling indications of available incident energy and required PPE. If arc flash labeling is not provided, assume hazard risk category “Dangerous“ and perform operations in the following sequence: 1. De-energize equipment 2. Remove covers 3. Re-energize equipment remotely with all personnel out of maximum arc flash protection boundary

  1. Perform thermographic survey 5. De-energize equipment 6. Re-install covers 7. Re-energize equipment

ELEC-TRN-03-03Y Frequency: 3-Year
Transformers, Liquid-Filled
Application: This standard card applies to maintenance testing of liquid filled transformers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. Perform transformer maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.2.2 Transformers, Liquid-Filled. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.2.2.3 Test Values. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-UPS-01-01M Frequency: Monthly
Uninterruptible Power System
Application: This standard card applies to Uninterruptible Power Systems as part of the building electrical system and the emergency power system found in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule and coordinate work with operating personnel. 3. Obtain and review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 6. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Check Points: Perform Visual Inspection in accordance with NETA Maintenance Testing Specifications Section 7.22.2. Test values for this maintenance item are also included in the respective NETA test section.

ELEC-UPS-01-01Y Frequency: Annually
Uninterruptible Power System
Application: This standard card applies to Uninterruptible Power Systems as part of the building electrical system and the emergency power system found in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform monthly visual inspections concurrently with annual maintenance and testing. 3. Schedule and coordinate work with operating personnel. 4. Obtain and review manufacturer’s instructions. 5. The 2005 International Electrical Testing Association (NETA) Maintenance Testing Specifications has been used as the guide for all Electrical Testing procedures. The NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in Appendix A for reference. Appendix B also contains the NETA schedule for the Frequency of Maintenance test as a reference. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. Check Points: Perform Mechanical and Electrical Inspections in accordance with NETA Maintenance Testing Specifications Section 7.22.2. Test values for this maintenance item are also included in the respective NETA test section.

 

ELEC-VFD-01-01Y Frequency: Annually
Variable Frequency Drives
Application This standard is for thermographic survey of variable frequency drives (VFD) for motors rated at 5 horsepower or greater. This maintenance standardis typically used in conjunction with the maintenance of the driven machine (Parent). Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform these tests only if equipment is safely accessible for the survey. 3. Schedule work with operating personnel, as needed. 4. Review manufacturer’s instructions. 5. Perform VFD thermographic survey, following the ANSI/NETA MTS-2011 procedures outlined in Section 9. THERMOGRAPHIC SURVEY. Check Points: Follow-up with suggested actions outlined in ANSI/NETA MTS-2011 Table 100.18. Safety Requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

ELEC-VFD-01-03Y Frequency: 3-Year
Variable Frequency Drives
Application This standard is for maintenance testing of variable frequency drives (VFD) for motors rated at 5 horsepower or greater. This maintenance standard is typically used in conjunction with the maintenance of the driven machine (Parent). Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform annual thermographic survey prior to 3-year electrical maintenance testing. 3. Schedule shutdown with operating personnel, as needed. 4. Review manufacturer’s instructions. 5. Perform VFD maintenance tests following ANSI/NETA MTS-2011 procedures, outlined in Section 7.17 Adjustable Speed Drive Systemc. Check Points: Test results shall conform to recommendations outlined in ANSI/NETA MTS-2011 Section 7.17.3 Test Values. Safety requirements: Only qualified personnel wearing proper Personal Protective Equipment must be allowed to perform this work.

FLSF-ALM-01-01M Frequency: Monthly
Alarm Check Valves and Accessories
Application This applies to all wet pipe sprinkler system’s alarm check valves. When water flows in the sprinkler system due to the operation of one or more automatic fire sprinklers, the alarm check valve opens, allowing continuous flow of water into the system and transmittal of water pressure to electrical and/or mechanical water flow alarm devices. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel, as needed. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. 7. Follow NFPA 25 (most recent version) for valve maintenance requirements. Check Points: Refer to NFPA 72 and NFPA 25. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-02-03M Frequency: Quarterly
Fire Supervisory Signals – Testing
Application: This standard applies to all supervisory signals of fire protection equipment and systems. The fire supervisory signal must be displayed at a constantly attended location on the site or at an approved remote monitoring location. These signals come from valves, air pressure devices, temperature sensors or water tank floats which are monitored at the fire panel or a remote location. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. When feasible the position of valves, air pressure, temperature, or water level being monitored should be altered to actuate the signals. 6. Check all supervisory devices for damage, corrosion, and pitted electrical contacts. 7. Inspect conduit for loose joints, hangers, and clamps. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 9. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment. Standard Tools-Basic.

FLSF-ALM-03-01Y Frequency: Annually
Automatic Fire Detection Smoke Detectors
Application: This standard applies to all smoke detectors, including ionization, photoelectric, combination ionization/photoelectric, photoelectric projected beam, and air sampling. These detectors may provide open area protection or HVAC duct protection and are initiated with the presence of smoke in the area or HVAC system. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. Check detectors for physical damage, obstruction, or corrosion. Replace damaged detectors. 6. Check for any changes in partitions or floor plan since detector installation may need to be rearranged. 7. Functional tests are to be made in place to assure smoke entry. Test duct detectors to assure that the device will sample the air stream. 8. When it is both feasible and safe, the environmental conditions being monitored should be altered to actuate the device. 9. Before each test, clean the detectors according to the manufacturer’s instruction. In addition, the frequency of cleaning and tests must be based on results of regular tests and local conditions. 10. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 11. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72

specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-04-03M Frequency: Quarterly
Automatic Fire Detection Waterflow Alarms
Application: This standard applies to all fire protection systems and equipment with waterflow alarms including mechanical water motor gongs, vane-type waterflow devices, and pressure switches that initiate audible or visual signals. These signals are initiated when water is flowing through the system indicating that a sprinkler of hose has been activated. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-05-01Y Frequency: Annually
Automatic Fire Detection, Heat Detectors
Application: This standard applies to all heat detectors, including: 1. Spot-type – Sensitive element is confined to a small area. a) Fixed-temperature (non-restorable). b) Rate-of-rise (restorable). c) Combination fixed-temperature and rate-of-rise (has both nonrestorable and restorable elements) 2. Line-type – Sensitive element is in a continuous line. a) Cable type – fixed-temperature (non-restorable). b) Cable type – rate-of-rise (restorable). c) Sealed Pneumatic type – rate-of-rise (restorable). Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. Check detectors for physical damage, obstruction, corrosion, or painting. Painting slows or inhibits detector response to a fire. Replace damaged or painted detectors and cables. 6. Check for any changes in partitions or floor plans since detector installation may need to be rearranged. 7. When it is both feasible and safe, the environmental conditions being monitored should be altered to actuate the device. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard.

  1. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-06-06M Frequency: Semi-annually
Smoke Control Systems -Operational Testing
Application: This standard applies to all building smoke control systems. Smoke control for the building may be divided into separate zones which will control ventilation systems based on activation of a fire detection device in the zone. This maintenance standard is to ensure that the operation in smoke mode functions correctly. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure will cause activation of an alarm and/or supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. Initiation of the smoke control system for each smoke control zone shall be accomplished by activation of a fire detection device that is programmed to initiate automatic smoke control within that smoke control zone. 6. Determine and list all programmed actions which should automatically occur upon activation of smoke control system for each smoke control zone. (Programmed actions are not standardized for the operation of air handling systems due to the various HVAC system design.) 7. The scheduling of the smoke control testing of the various smoke control zones should be evenly distributed during those months when outside temperatures are above freezing. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 9. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Checkpoints:

Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-07-01Y Frequency: Annually
Fire Alarm Control Panel and Remote Annunciators
Application: This standard applies to all fire alarm panels and remote annunciators in both interior and exterior locations. These annunciators are for audio of voice notification during a fire event to the personnel in or around a building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure will cause the activation of the building fire alarm system and/or supervisory signals. The field office manager, control center, central station, and/or fire department must be notified prior to start and at completion of work. 5. When work requires the actuation of building evacuation systems, the work must be performed after hours and must be coordinated through the field office manager to prevent the unnecessary evacuation of building occupants. 6. Dispose of old batteries in accordance with all applicable Federal, state, and local regulations. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-08-01Y Frequency: Annually
Fire Alarm Control Panel -Special Systems
Application: This standard applies to control panels for specialized fire suppression systems such as Halon 1301, carbon dioxide, preaction, deluge, water spray systems, and other systems with special shutdown features. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of the building fire alarm system and/or supervisory signals. The field office manager, control center, central station, and/or fire department must be notified prior to start and at completion of work. 5. When work requires the actuation of building evacuation systems, the work must be performed after hours and must be coordinated through the field office manager to prevent the unnecessary evacuation of building occupants. 6. If a test that includes actual discharge of the system is desired, special precautions must be taken with the using agency to prevent shutdown and discharge during routine work performance causing subsequent equipment or software damage. If an actual discharge test is not desired, be sure to prevent gas discharge, ventilation system, and computer system or other equipment shutdown. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 8. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check Points. Refer to NFPA 72.

Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-09-01Y Frequency: Annually
Central Station Transmitter
Application: This standard applies to all fire alarm system central station transmitters that are not maintained by a central station supervisory service. These transmitters are used to send a fire event notification for the building to a central monitoring station. They are not maintained by the monitoring station. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or supervisory signal. The field office manager, control center, central station, and/or the fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. When work requires the actuation of building evacuation systems, the work must be performed after hours and must be coordinated through the field office manager to prevent the unnecessary evacuation of building occupants. 6. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 7. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check Points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-10-01D Frequency: Daily
Central Station – Receiver and Re-Transmission Equipment Application: This standard applies to equipment in Government-owned control centers providing proprietary supervisory station service. This standard ensures that the central monitoring station within the building sends and records the proper signals for a given fire event triggering the alarm(s). Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work on these devices and systems must be coordinated with the control center’s operators and the fire department that will receive the alarm. 5. The work required by this procedure should be performed only by employees knowledgeable of the equipment and the procedures involved. 6. Once daily operational tests are completed, all circuits are to be returned to normal as soon as possible. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 8. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check Points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools-Basic.

FLSF-ALM-11-01W Frequency: Weekly
Fire Alarm System – Recorder
Application. This standard applies to recorders in Government-owned buildings. Older fire systems use this paper spool type of device to record fire system events along with the associated date/time stamp. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. This procedure is to be accomplished once weekly during the daily test and inspection required in the standard. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools – Basic.

FLSF-ALM-12-03M Frequency: Quarterly
Fire Alarm System – Event Printer
Application: This standard applies to fire alarm system event printers in Government owned buildings which are attached to the fire panel. These printers record all events which are reported into the fire panel and create a record for review, Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 5. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Soft cleaning cloths. 3. Alcohol or recommended cleaner. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Small stiff brush. 5. Small vacuum cleaner or cleaning brush. 6. Print mechanism lubricant. Consult the MSDS for hazardous ingredients. 7. Spare inked ribbon.

FLSF-ALM-13-01Y Frequency: Annually
Fire Alarm System -Audio Control Panel
Application: This standard applies to fire alarm system audio control panels in Government owned buildings. These audio panels contain the audio/voice alerts used during fire events to broadcast instructions to building occupants. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment.: 1. Tool Group B. 2. Soft cleaning cloths. 3. Spark indicator light bulb or LED.

FLSF-ALM-14-01Y Frequency: Annually
Fire Alarm System -Remote Controller
Application: This standard applies to fire alarm system remote controllers in Government owned buildings. Special Instruction: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Soft cleaning cloths. 3. Compressed air or a vacuum cleaner. 4. Print mechanism lubricant. Consult the MSDS for hazardous ingredients. 5. Spare inked ribbon.

FLSF-ALM-15-01Y Frequency: Annually
Fire Alarm System -Remote Amplifiers
Application: This standard applies to fire alarm remote amplifiers in Government owned buildings. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 5. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Compressed air or a vacuum cleaner.

FLSF-ALM-16-01Y Frequency: Annually
Manual Fire Alarm Stations -Coded and Uncoded
Application: This standard applies to all manual fire alarm pull stations in both interior and exterior locations. These devices provide a signal the building fire control system when activated initiating building fire alarms and signal to the central monitoring station. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. When alarm systems are connected to municipal systems, test signals to be transmitted to them will be limited to those acceptable to that authority. 6. Record all test results. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 8. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Cleaning materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

FLSF-ALM-17-01Y Frequency: Annually
Fire Life Safety Fire Alarm
Application: This standard applies to “Fire Alarms” only and should follow NFPA 72 National Fire Alarm Code (most recent addition), defined by Chapter 10-Inspection, Testing and Maintenance. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Fire Life Safety (Fire Alarm) system testing shall be performed by a licensed and certified testing company as required to maintain the building UL certification. 3. Notify building occupants, alarm monitoring company, and/or local fire department prior to work. 4. Complete and file NFPA Inspection Testing and Maintenance Form (four pages) Check Points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: Standard Tools – Basic.

 

FLSF-ALM-17-05Y Frequency: 5-Year
Fire Life Safety Fire Alarm
Application: This standard applies to “Fire Alarms” only and should follow NFPA 72 National Fire Alarm Code (most recent addition), defined by Chapter 10-Inspection, Testing and Maintenance. Special Instructions: Fire Alarm System needs UL certification every five years. Check Points: 1. Refer to NFPA 72.

FLSF-DOR-01-03M Frequency: Quarterly
Fire Doors – Stairwells and Exitways, Swinging
Application: This standard applies to all swinging fire doors located in stairwells and exitways, sliding and vertical rolling doors located in fire walls in the building. These doors are required to shut during a fire event protecting against the spread of fire and/or smoke into other parts of the building or into vertical shafts such as elevators. Some doors will be alarmed, others will not. Proper maintenance will ensure that the stairwells and exitways remain safe for personnel egress during a fire event. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or supervisory signal. The field office manager and the control center, central station or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 80 for operation and maintenance requirements. Check points. Refer to NFPA 72. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

FLSF-EPR-01-01Y Frequency: Annually
Emergency Generators, Gasoline, or Natural Gas Engines Application: This standard applies to all permanently installed electric generators used for providing emergency electrical power whose engines are powered by gasoline or natural gas. See electrical standards for the maintenance required on the electric generator side. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review and follow manufacturer’s instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. A written record of all inspections, service, tests, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identity of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 5. Have a properly serviced fire extinguisher in proper working order on hand. 6. Allow no open flames or smoking in the area. 7. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 8. Test medium and high voltage circuit breakers in accordance with circuit breaker maintenance standards. 9. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 10. Follow NFPA 110 and 111 for operation and maintenance requirements. Parent of this Piece of Equipment Emergency Generator, Electrical

Children of this Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment. 1. Pumps for fuel and/or coolant 2. Fans or air handler for ventilation and/or combustion air 3. Valves on fuel lines 4. DDC and Pneumatic Controls Check Points: Refer to NFPA 110 Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Engine Tune-up Kit. 3. Belts (fan, water pump, alternator). 4. Engine oil. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients. 5. Oil filters. 6. Governor oil. Consult the MSDS for hazardous ingredients. 7. Coolant. Consult the MSDS for hazardous ingredients. 8. Generator bearing grease. Consult the MSDS for hazardous ingredients. 9. Megger 10. Cleaning materials. Consult the MSDS for hazardous ingredients and proper Personal Protective Equipment.

FLSF-EPR-02-03M Frequency: Quarterly
Electric Emergency Generators, Diesel Engine Powered Application: This standard applies to all permanently installed electric generators used for providing emergency electrical power whose prime movers are diesel engines. See electrical standards for the maintenance required on the electric generator side. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review and follow manufacturer’s instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 5. Have a properly serviced fire extinguisher in proper working order on hand. 6. Allow no open flames or smoking in the area. 7. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 9. Follow NFPA 110 and 111 for operation and maintenance requirements. Parent of this Piece of Equipment Emergency Generator, Electric Children of this Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other

sections of this standard for the detailed PM requirements for the children equipment. 1. Pumps for fuel and/or coolant 2. Fans or air handler for ventilation and/or combustion air 3. Valves on fuel lines 4. DDC and Pneumatic Controls Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Hearing protection. 3. Engine oil. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients. Unused engine oil is not hazardous. 4. Oil filters. 5. Cleaning materials. Consult the MSDS for hazardous ingredients and proper Personal Protective Equipment.

FLSF-EPR-02-01Y Frequency: Annually
Electric Emergency Generators, Diesel Engine Powered Application: This standard applies to all permanently installed electric generators used for providing emergency electrical power whose prime movers are diesel engines. See electrical standards for the maintenance required on the electric generator side. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 5. Have a properly serviced fire extinguisher in proper working order on hand. 6. Allow no open flames or smoking in the area. 7. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 9. Follow NFPA 110 and 111 for operation and maintenance requirements. Parent of this Piece of Equipment Emergency Generator, Electric Children of this Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other

sections of this standard for the detailed PM requirements for the children equipment. 1. Pumps for fuel and/or coolant 2. Fans or air handler for ventilation and/or combustion air 3. Valves on fuel lines 4. DDC and Pneumatic Controls Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Belts (fan, water pump, alternator). 3. Fuel filters. 4. Governor oil. Consult the MSDS for hazardous ingredients. 5. Coolant. Consult the MSDS for hazardous ingredients. 6. Hoses. 7. Generator bearing grease. Consult the MSDS for hazardous ingredients. 8. Hearing protection. 9. Cleaning materials. Consult the MSDS for hazardous ingredients and proper Personal Protective Equipment.

FLSF-EPR-03-01W Frequency: Weekly
Emergency Generators
Application: This standard applies to all permanently installed emergency generators used for providing emergency electrical power. This standard applies primarily to the engine side of the generator. See electrical standards for the maintenance required on the electric generator side. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 5. Have a properly serviced fire extinguisher in proper working order on hand. 6. Allow no open flames or smoking in the area. 7. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 8. Hearing protection is required whenever the engine is running. 9. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 10. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 11. Follow NFPA 110 and 111 for operation and maintenance requirements.

Children of this Parent Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment. 1. Pumps for fuel and/or coolant 2. Fans or air handler for ventilation and/or combustion air 3. Valves on fuel lines 4. DDC and Pneumatic Controls Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Spare air cleaner/filter. 3. Battery tester. 4. Engine oil. 5. Cleaning equipment and materials.

FLSF-EPR-03-01M Frequency: Monthly
Emergency Generators
Application: This standard applies to all permanently installed emergency generators used for providing emergency electrical power. This standard applies primarily to the engine side of the generator. See electrical standards for the maintenance required on the electric generator side. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. The weekly maintenance checks shall be performed in conjunction with this monthly maintenance. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start and at the completion of work. 5. Qualified operating personnel shall be in attendance during the monthly generator operation. 6. Hearing protection is required whenever the engine is running. 7. Records of changes to the emergency electrical system should be maintained so that the demand likely to be produced by the connected load will be within the available capacity. 8. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment”. Note the location of emergency eyewash and/or shower equipment. 9. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 10. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any

unsatisfactory condition and the corrective action taken, including parts replaced. 11. Have a properly serviced fire extinguisher in proper working order on hand. 12. Allow no open flames or smoking in the area. 13. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 14. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 15. Follow NFPA 110 and 111 for operation and maintenance requirements. 16. If applicable, ensure the air quality/emmissions permit is current and all requirements associated with the permit are followed. Children of this Parent Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment. 1. Pumps for fuel and/or coolant 2. Fans or air handler for ventilation and/or combustion air 3. Valves on fuel lines 4. DDC and Pneumatic Controls Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Engine oil. 3. Hydrometer. 4. Distilled water. 5. Tachometer. 6. Acid resistant apron, gloves, and plastic face shield. 7. Cleaning equipment and materials. Consult the Material Safety Data Sheet for hazardous ingredients and proper Personal Protective Equipment. 8. Emergency eye wash that provides at least 0.4 gallons/minute for at least 15 minutes.

  1. Hearing protection.

FLSF-EPR-03-03M Frequency: Quarterly
Emergency Generators
Application: This standard applies to all permanently installed emergency generators used for providing emergency electrical power. This standard applies primarily to the engine side of the generator. See electrical standards for the maintenance required on the electric generator side. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start and at the completion of work. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Qualified operating personnel shall be in attendance during the monthly generator operation. 6. Hearing protection is required whenever the engine is running. 7. Records of changes to the emergency electrical system should be maintained so that the demand likely to be produced by the connected load will be within the available capacity. 8. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment”. Note the location of emergency eyewash and/or shower equipment. 9. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 10. Have a properly serviced fire extinguisher in proper working order on hand.

  1. Allow no open flames or smoking in the area. 12. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 13. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 14. Follow NFPA 110 and 111 for operation and maintenance requirements. Children of this Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment. 1. Pumps for fuel and/or coolant 2. Fans or air handler for ventilation and/or combustion air 3. Valves on fuel lines 4. DDC and Pneumatic Controls Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Spare crankcase breather. 3. Cleaning equipment and materials.

FLSF-EPR-03-06M Frequency: Semi-annually
Emergency Generators
Application: This standard applies to all permanently installed electric generators used for providing emergency electrical power. See electrical standards for the maintenance required on the electric generator side. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start and at the completion of work. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Qualified operating personnel shall be in attendance during the monthly generator operation. 6. Hearing protection is required whenever the engine is running. 7. Records of changes to the emergency electrical system should be maintained so that the demand likely to be produced by the connected load will be within the available capacity. 8. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment”. Note the location of emergency eyewash and/or shower equipment. 9. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 10. Have a properly serviced fire extinguisher in proper working order on hand. 11. Allow no open flames or smoking in the area.

  1. If the unit has a self-contained fuel tank, use only Underwriters Laboratories listed safety cans for fuel transfer. 13. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 14. Follow NFPA 110 and 111 for operation and maintenance requirements. Children of this Parent Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment. 1. Pumps for fuel and/or coolant 2. Fans or air handler for ventilation and/or combustion air 3. Valves on fuel lines 4. DDC and Pneumatic Controls 5. DC Battery Charger 6. DC Batteries Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Coolant tester. 3. Coolant. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients. 4. Spare air cleaner/filter. 5. Cleaning equipment and materials.

FLSF-EPR-04-03M Frequency: Quarterly
Emergency Pumps and Ventilators
Application: The purpose of this standard is to test the operation of emergency pumps and ventilating blowers. The standard applies to portable emergency pumps and ventilating blowers driven by electric, LP gas, gasoline and pneumatic drive motors. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Have the proper fire extinguisher on hand. Ensure that the fire extinguisher is properly serviced and in proper working order. 4. Notify all tenants before testing pumps and ventilators as the test may activate an alarm. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: Standard tools – Basic.

FLSF-EPR-04-01Y Frequency: Annually
Emergency Pumps and Ventilators
Application: This standard applies to portable emergency pumps and ventilating blowers and includes electric, LP gas, gasoline and pneumatic drive motors. This annual maintenance is to ensure that the equipment is in good operating order when needed in an emergency. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Have the proper fire extinguisher on hand. Ensure that the fire extinguisher is properly serviced and in proper working order. 4. Refer to appropriate standard and manufacturer’s instructions for pump and motor maintenance. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Standard tools – Basic. 2. Grease. Consult the MSDS for hazardous ingredients. 3. Oil. Consult the MSDS for hazardous ingredients. Unused oil is not hazardous.

FLSF-EPR-05-06M Frequency: Semi-annually
Fuel Oil Filter/Strainer
Application: This standard card applies to inline cartridge filters used on light fuel oils No. 1, 2, or 4, as well as the larger basket type used on heavier oils (#5 or #6). Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Flammable liquids are being handled. Use all applicable safety precautions. 5. Check with operating personnel before starting work. 6. Secure and tag pumps, burners, and other necessary equipment. 7. Shut off and tag inlet and outlet valves. 8. Wear gloves while cleaning strainer. Consult the Material Safety Data Sheets (MSDS) for proper personal protective equipment (PPE). 9. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Tool Group C 2. Gaskets and filters 3. Solvents approved for use with fuel oils. Consult the MSDS for hazardous ingredients and proper PPE.

FLSF-EPR-06-01Y Frequency: Annually
Fuel Oil Heater
Application This standard applies to inline heaters as part of the fuel oil system supplying generator or boilers. These heaters are used to heat heavy oils as it passes from the tank and to the burners. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule outage with operating personnel. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. If the insulation is known or suspected to contain asbestos, check the building’s asbestos management plan to see it has been tested for asbestos. If it is suspect but has not been tested, have it tested. Manage asbestos in accordance with the plan. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 110. Recommended Tools and Equipment: 1. Standard Tools – Basic 2. Varsol and rags. Use Varsol in well ventilated areas; do not pour used Varsol down drain. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients, disposal, and proper personal protective equipment (PPE). 3. Tube cleaning material. Consult the MSDS for hazardous ingredients and proper PPE. 4. Gasket material. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

FLSF-EPR-07-01M Frequency: Monthly
Emergency Generator Steam Turbine Driven
Application: This standard applies to all permanently installed electric generators that are driven by steam turbines and used for providing emergency electrical power for the steam plant. See electrical standards for the maintenance required on the electric generator equipment. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s operating instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. Check fire extinguishers for location and type. Ensure that the fire extinguishers are properly serviced and in proper working order. 4. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 5. Check log to see if any abnormal condition has been noted. 6. Check with operating personnel before starting equipment. 7. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 9. Follow NFPA 110 and 111 for operation and maintenance requirements. Parent of this Piece of Equipment Steam Turbine Children of this Parent Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other

sections of this standard for the detailed PM requirements for the children equipment. 1. DDC and Pneumatic Controls (if applicable). 2. Exhaust and inlet air dampers and actuators (if applicable). Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic. 2. Tachometer. 3. Cleaning equipment. Consult the Material Safety Data Sheet for hazardous ingredients and proper Personal Protective Equipment.

FLSF-EPR-07-01Y Frequency: Annually
Emergency Generator Steam Turbine Driven
Application: This standard applies to all permanently installed electric generators that are driven by steam turbines and used for providing emergency electrical power for the steam plant. See electrical standards for the maintenance required on the electric generator equipment. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s operating instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. Check fire extinguishers for location and type. Ensure that the fire extinguishers are properly serviced and in proper working order. 4. A written record of all inspections, service, tests, exercising, operation, and repairs to the emergency generator shall be maintained in an equipment log book and kept on the premises. This record shall include the date of maintenance, identification of service personnel, and notation of any unsatisfactory condition and the corrective action taken, including parts replaced. 5. Check logs to see if any abnormal condition has been noted. 6. Schedule PM on the steam turbine in conjunction with this PM. 7. Check with operating personnel before starting equipment. 8. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 9. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 10. Follow NFPA 110 and 111 for operation and maintenance requirements. Parent of this Piece of Equipment Steam Turbine Children of this Parent Piece of Equipment

The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment. 1. DDC and Pneumatic Controls (if applicable). 2. Exhaust and inlet air dampers and actuators (if applicable). Check Points: Refer to NFPA 110. Recommended Tools, Materials, and Equipment: 1. Standard tools – basic. 2. Tachometer. 3. Cleaning equipment. Consult the Material Safety Data Sheet for hazardous ingredients and proper Personal Protective Equipment.

FLSF-EPR-08-01Y Frequency: Annually
Load Bank Testing
Application: This standard applies to load bank testing. Load banks shall be of the reactive type rather than the resistive only type. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Obtain and review manufacturer’s operating instructions. One copy of the instruction manual(s) shall be kept in a secure, convenient location near the equipment and another kept in a different location. 3. Check fire extinguishers for location and type. Ensure that the fire extinguishers are properly serviced and in proper working order. 4. Load shall be at a minimum of 75% of rated capacity. 5. Where practical, load bank testing shall include transfer switches. 6. The recommended duration of the test is eight (8) hours; minimum of two (2) hours is required. Check Points: Refer to NFPA 110.

FLSF-EPR-08-03Y Frequency: 3-Year
Load Bank Testing
Application: This standard applies to load bank testing where failure of EPSS to perform could result in loss of human life, health hazards or serious injuries. Health care facilities or assembly of occupancy greater than 1,000 people requires NFPA Level 1 testing. Special Instructions: Level 1 systems are required to test generator under load for the duration of their class rating OR a minimum of four hours, whichever is greater, every three (3) years. Check Points: Refer to NFPA 110.

FLSF-FEX-01-01M Frequency: Monthly
Fire Extinguishers – Inspection
Application: This standard is for a monthly visual inspection of all fire extinguishers, and is in addition to the annual maintenance requirements. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Remove from service and discard all inverting-type fire extinguishers, including soda-acid, chemical foam, water cartridge-operated, and loaded stream cartridge-operated extinguishers. 5. Whenever an extinguisher is removed from service, immediately replace it with an extinguisher of a size and extinguishing agent appropriate for the hazard protected. 6. Each extinguisher shall have an inspection tag securely attached that indicates the month and year the inspection was performed and the initials of the person performing the inspection shall be recorded. 7. Records are to be kept of those extinguishers that were found to require correction, with an notation of when and how the corrections were made. 8. The requirement for an inspection tag and the recording of the inspector’s initials does not preclude the use of electronic record keeping utilizing bar codes or some other method of insuring that the extinguishers were actually inspected. 9. In addition to the required tags and/or labels, a permanent file record is to be kept for each extinguisher. This file record should include the following information as applicable: a) The date when each extinguisher was purchased and installed. b) The maintenance date and the name of the person or agency performing the maintenance. c) The date when last recharged and the name of the person or agency performing the maintenance.

  1. d) The hydrostatic re test date and the name of the person or agency performing the maintenance. e) Description of dents remaining after passing a hydrostatic test. f) The date of the six-year maintenance for stored pressure dry chemical and Halon extinguishers. g) The date when non rechargeable extinguishers are to be removed from service and discarded. 10. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: A visual inspection is a quick check to see that the fire extinguisher is in its proper location, that it is not blocked, is fully charged, and that it appears to be in good working order. 1. Refer to NFPA 10 and NPFA 25. Recommended Tools, Materials, and Equipment: 1. Seals or tamper indicators. 2. Inspection tags.

FLSF-FEX-01-05Y Frequency: 5-Year
Fire Extinguishers, Hydrostatic Testing Carbon Dioxide, Stored Pressure and AFFF Application: This standard applies to the following types of extinguishers in service except for the non chargeable type: 1. Stored Pressure Water, Loaded Stream, or Antifreeze 2. AFFF (Aqueous Film Forming Foam) 3. FFFP (Film Forming Fluoroprotein Foam) 4. Dry Chemical with stainless steel shells 5. Carbon Dioxide Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Hydrostatic testing of extinguishers requires experienced personnel and suitable testing equipment. It is recommended that this service be performed by a fire equipment company specializing in this type of service. 5. If the hydrostatic testing is to be accomplished on the premises, it should be limited only to non compressed gas type extinguishers (water base, dry chemical, and dry powder). Compressed gas extinguishers (carbon dioxide) require special internal inspections and high test pressures. 6. Wheeled extinguisher testing is beyond the scope of this standard. Utilize a fire equipment company if wheeled extinguishers are on the premises. 7. Discharge and discard extinguishers when the cost of new extinguishers is cheaper than the cost of extinguishing agent and a hydrostatic test. 8. Refer to National Fire Protection Association Standard No. 10, “Portable Fire Extinguishers” for additional detailed information about hydrostatically testing extinguishers. In addition, anytime an extinguisher shows evidence of physical injury or corrosion, and extinguishers with aluminum cylinders or shells are suspected of

being exposed to temperatures in excess of 350°F, they are to be immediately discharged and hydrostatically tested. 1. Extinguishers that are required to be returned to the manufacturer for recharging, are to be hydrostatically tested by the manufacturer. 2. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Seals or tamper indicators. 3. Hydrostatic test labels. 4. Scale for gas cartridges. 5. Appropriate testing equipment.

FLSF-FEX-01-12Y Frequency: 12-Year
Fire Extinguishers, Hydrostatic Testing Halon, Dry Powder, Stored Pressure, Cartridge Operated Application: This standard applies to the following types of extinguishers in service except for the non chargeable type: 1. Dry Chemical, Stored Pressure with mild steel shells, brazed brass shells, or aluminum shells 2. Halon 1211 and 1301 3. Dry Powder, Stored Pressure, Cartridge-or Cylinder Operated, with mild steel shells Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Hydrostatic testing of extinguishers requires experienced personnel and suitable testing equipment. It is recommended that this service be performed by a fire equipment company specializing in this type of service. 5. If the hydrostatic testing is to be accomplished on the premises, it should be limited only to non compressed gas type extinguishers (water base, dry chemical, and dry powder). Compressed gas extinguishers (Halon 1211 and 1301) require special internal inspections and high test pressures. 6. Wheeled extinguisher testing is beyond the scope of this standard. Utilize a fire equipment company if wheeled extinguishers are on the premises. 7. Discharge and discard extinguishers when the cost of new extinguishers is cheaper than the cost of extinguishing agent and a hydrostatic test. 8. Refer to National Fire Protection Association Standard No. 10, “Portable Fire Extinguishers” for additional detailed information about hydrostatically testing extinguishers. In addition, anytime an extinguisher shows evidence of physical injury or corrosion, and extinguishers with aluminum cylinders or shells are suspected of

being exposed to temperatures in excess of 350°F, they are to be immediately discharged and hydrostatically tested. 1. Halon extinguishers requiring hydrostatic testing are to be returned to a fire equipment company so that the agent can be recovered. 2. Extinguishers that are required to be returned to the manufacturer for recharging, are to be hydrostatically tested by the manufacturer. 3. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Seals or tamper indicators. 3. Hydrostatic test labels. 4. Scale for gas cartridges. 5. Appropriate testing equipment.

FLSF-FEX-02-01Y Frequency: Annually
Fire Extinguishers, Stored Pressure with Gauge
Application: This standard applies to fire extinguishers that use stored air or nitrogen pressure to expel the extinguishing agent. This includes extinguishers containing water, foam, dry chemical, dry powder, and Halon 1211. This standard does not apply to carbon dioxide extinguishers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. This procedure is to be accomplished in conjunction with the monthly inspections required in this standard and the 5 year hydrostatic testing. 5. Every six years, stored pressure extinguishers with gauges and shells of non-stainless steel require additional maintenance procedures 6. Do not pressurize any extinguisher that shows signs of mechanical damage, corrosion, or burned in a fire. Relieve the pressure as indicated below and destroy the extinguisher. 7. Whenever an extinguisher is removed for servicing, a replacement extinguisher is to be provided of the same type and at least equal rating. 8. Each extinguisher shall have a tag or label securely attached that indicates the month and year the inspections, maintenance, and recharging were performed and shall identify the person and firm performing the service. 9. Always recharge an extinguisher with the same type of extinguishing agent as specified on the name plate. 10. No extinguisher shall be converted from one type to another nor be converted to use a different type of extinguishing agent. 11. Never mix multipurpose dry chemical agents with any other dry chemical agents. 12. Compressed air is satisfactory to pressurize water type extinguishers. Use standard industrial-grade nitrogen for pressurizing all other extinguishers.

  1. When the discharging and recharging of Halon 1211 extinguishers is necessary as part of the required maintenance, an experienced fire equipment firm should perform the maintenance so that the Halon can be captured with a closed recovery system. Discharge Halon in accordance with Clean Air Act regulations. 14. Refer to Non rechargeable Fire Extinguishers Standard for maintenance on non rechargeable stored pressure extinguishers. 15. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Spare hoses and couplings. 3. Seals or tamper indicators. 4. Inspection Tags. 5. Cleaning materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

FLSF-FEX-02-06Y Frequency: 6-Year
Fire Extinguishers – Stored Pressure With Gauge (Non-Stainless Steel Shell)
Application: This standard contains additional procedures to the annual maintenance required in Standard FLSF-FEX-02-01Y and applies to fire extinguishers that use stored air or nitrogen pressure to expel the extinguishing agent and have non-stainless steel shells of mild steel, brazed brass, or aluminum. This includes extinguishers containing water, foam, dry chemical, dry powder, and Halon 1211 and 1301. This standard does not apply to carbon dioxide extinguishers. This standard shall be used in conjunction with Standard FLSF-FEX-02-01Y whenever stored pressure fire extinguishers are discharged and have to be recharged. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. This procedure is to be accomplished in conduction with the monthly extinguisher inspections and the 12 year hydrostatic testing as required. 5. Review manufacturer’s instructions, if available. 6. An experienced fire equipment firm should perform the maintenance of Halon 1211 and 1301 extinguishers so that the Halon can be captured with a closed recovery system. 7. Release pressure on extinguisher, without discharging extinguisher agent, and dismantle extinguisher. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic.

  1. Spare hoses, couplings, and nozzles. 3. Seals or tamper indicators. 4. “O” rings and lubricant. 5. Inspection tags. 6. Six year maintenance tags. 7. Pull pins. 8. Cleaning materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

FLSF-FEX-03-01Y Frequency: Annually
Fire Extinguishers -Non rechargeable
Application: This standard applies to dry chemical and Halon extinguishers that cannot be recharged and are intended to be disposed of after use. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Non rechargeable extinguishers shall be removed from service and disposed of at a maximum interval of 12 years from the date of manufacture. 5. When a non rechargeable dry chemical extinguisher is to be disposed of, it is to be discharged before discarding. 6. When a non rechargeable Halon extinguisher is to be disposed of, it is to be returned to the manufacturer, fire equipment dealer, or fire equipment distributor without being discharged so that the Halon can be recovered. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: Standard Tools – Basic

FLSF-FEX-04-01Y Frequency: Annually
Fire Extinguishers , Gas Cartridge or Cylinder (No Gauge) Application: This standard applies to fire extinguishers that use a nitrogen cartridge to expel the extinguishing agent or the agent is self-expelled due to the agent being a compressed gas. This includes dry chemical, dry powder, Halon 1301, and carbon dioxide extinguishers. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. This procedure is to be accomplished in conjunction with the monthly inspection as required and required hydrostatic testing 5. Whenever an extinguisher is removed for servicing, a replacement extinguisher is to be provided of the same type and at least equal rating. 6. Each extinguisher shall have a tab or label securely attached that indicates the month and year the inspections, maintenance, and recharging were performed and shall identify the person and firm performing the service. 7. Always recharge an extinguisher with the same type of extinguishing agent as specified on the name plate. 8. No extinguisher shall be converted from one type to another nor be converted to use a different type of extinguishing agent. 9. Never mix multipurpose dry chemical agents with any other dry chemical agents. 10. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Spare hoses, couplings, nozzles and horns.

  1. Seals or tamper indicators. 4. “O” rings and lubricant. 5. Scales for gas cartridge and extinguishers. 6. Inspection Tags. 7. Pull Pins. 8. Cleaning materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

FLSF-FEX-05-01M Frequency: Monthly
Water Spray Extinguishing Systems
Application: This standard applies to water spray extinguishing systems. These systems are similar to automatic sprinkler systems except that they use open heads that are specifically designed to project a particular water pattern to a precisely defined area and are used to provide protection to special hazards such as cooling towers, electrical transformers, and cable trays. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. When extinguishing system service is required, use a fire service equipment company experienced in water spray extinguishing system service. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 25 for system operation and maintenance requirements. Check Points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic

FLSF-FEX-05-01Y Frequency: Annually
Water Spray Extinguishing Systems
Application: This standard applies to water spray extinguishing systems. These systems are similar to automatic sprinkler systems except that they use open heads that are specifically designed to project a particular water pattern to a precisely defined area and are used to provide protection to special hazards such as cooling towers, electrical transformers, and cable trays. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Due to the special requirements for maintaining this type of extinguishing system, it is recommended that the servicing of the system be provided by a fire equipment company experienced in water spray extinguishing system service. 5. Review manufacturer’s instructions. 6. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start as well as at the completion of work. 7. Annual preventive maintenance should be scheduled for the deluge valve, the detection system, the control panel, and the item being protected at this time. 8. Take necessary steps to prevent water damage during full flow drain test. 9. Prior to water flow test, install a pressure gauge at the hydraulically most remote spray nozzle. This can be done by removing the most remote nozzle, installing a tee with a pressure gauge attached and replacing the spray nozzle. 10. Perform these procedures in the spring after there is no danger of freezing. 11. Open and close all control valves slowly.

  1. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 13. Follow NFPA 25 for system operation and maintenance requirements. Check Points: Refer to NFPA 10 and NFPA 25. Recommended Tools, Materials, and Equipment: Standard Tools – Basic

FLSF-FEX-06-01M Frequency: Monthly
Fire Extinguishing Systems – Inspection Carbon Dioxide (High Pressure)Halon, Dry Chemical
Application: This standard applies to all fixed fire extinguishing systems utilizing carbon dioxide, Halon 1211 or 1301, or dry chemical and includes both total flooding and local application types. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. When extinguishing system service is required, use a fire equipment company experienced and certified in fire extinguishing system service. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 12, 13, 17,17A for system operation and maintenance requirements. Check points: Refer to NFPA 10,NFPA 25. Recommended Tools, Materials, and Equipment: 1. Seals or tamper indicators. 2. Inspection tags.

FLSF-FEX-06-06M Frequency: Semi-annually
Fire Extinguishing Systems – Inspection Carbon Dioxide (High Pressure)Halon, Dry Chemical
Application: This standard applies to all fixed fire extinguishing systems utilizing carbon dioxide, Halon 1211 or 1301, or dry chemical and includes both total flooding and local application types. Special Instructions: 1. The procedures in this standard are in addition to the monthly inspection procedures. 2. Due to the special requirements for maintaining these extinguishing systems, it is recommended that the servicing of the systems be provided by a fire equipment company experienced and certified in fire extinguishing system service. 3. Follow manufacturer’s instructions. 4. Whenever heat or smoke detection systems are used to activate an extinguishing system, coordinate the procedures of this standard with maintenance of those sensing systems as appropriate. 5. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start of work. 6. When replacement cylinders are received from supplier, check that hydrostatic test date is current. 7. In addition to the required tags and/or labels, a permanent file record is to be kept for each extinguishing system. This file record should include the following information as applicable: a) The date when each extinguishing system was purchased and installed. b) The dates when maintenance was done and the name of the person or agency performing the maintenance. c) The date when cylinders were last recharged and the name of the person or agency performing the maintenance. d) The hydrostatic test date and the name of the person or agency performing the maintenance.

  1. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Follow NFPA 12, 13, 17,17A for system operation and maintenance requirements. Check Points: Refer to NFPA 10, NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Seals or tamper indicators. 3. Inspection Tags. 4. Scale for gas cartridge or cylinders.

FLSF-FSD-01-02Y Frequency: 2-Year
Fire and Smoke Dampers
Application: This standard applies to all fire and smoke dampers in HVAC systems. These dampers are used to isolate the HVAC system form the fire event to preclude spreading smoke in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Verify that dampers are not installed backwards. Air movement should always tend to close the damper. 5. Verify that dampers are not held open by the air stream. 6. NEVER replace the fusible link with a piece of wire. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 72. Recommended Tools, Materials, and Equipment: 8. Standard Tools – Basic 9. Lubricants – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

FLSF-FSP-01-01Y Frequency: Annually
Sprinkler Heads -Sprinklered Areas
Application: This standard applies to all of the various types of sprinkler heads installed in the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Inspect sprinkler heads immediately prior to the scheduled maintenance on dry pipe valves, deluge valves, or alarm check valves in wet pipe systems. 5. Replace any damaged sprinkler heads prior to performing maintenance on dry pipe, deluge, or alarm check valves. 6. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 7. Follow NFPA 25 for system operation and maintenance requirements. Check Points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Spare sprinkler heads of proper temperature ratings. 3. Ladder – Check ladder for defects. Do not use defective ladders.

FLSF-FSP-02-01Y Frequency: Annually
Antifreeze Solution in Sprinkler Systems
Application: This standard applies to those small portions of wet pipe sprinkler systems that are in unheated areas and are subject to freezing that use an antifreeze solution to protect the system from freezing. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review manufacturer’s instructions. 5. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start of work and at the completion of work. 6. Whenever the valve is closed, a clearly visible impairment tag is to be installed on the valve and the fire department connection. A typical impairment tag is illustrated in the National Fire Protection Association Standard 25, “Inspection, Testing, and Maintenance of Water-Based Fire Protection Systems.” 7. The use of antifreeze solutions in sprinkler systems is only intended for limited portions of wet pipe systems typically containing less than forty gallons of water in small unheated areas such as loading docks. Dry pipe sprinkler systems are to be installed to protect larger areas. 8. Prepare the antifreeze solution with a freezing point below the expected minimum temperature for the locality. 9. Sprinklers with antifreeze solution must be located below the interface between the water and antifreeze solutions so that the heavier antifreeze solution will prevent the lighter water from migrating into the unheated area. 10. Beyond certain limits, increasing the proportion of antifreeze does not lower the freezing point of the solution.

  1. Always mix glycerin, diethylene glycol, ethylene glycol, and propylene glycol with water in the proper proportions before putting the solution into the piping because these materials tend to thicken near 32· F. 12. Protect chlorinated polyvinyl chloride (CPVC) pipe from freezing only with glycerin. 13. A potable water system is one that is suitable for drinking. 14. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 15. Follow NFPA 25 for system operation and maintenance requirements. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Hydrometer or refractometer.

FLSF-HSE-01-01M Frequency: Monthly
Fire Hose – 1.5 inch. Racked in Buildings
Application: This standard applies to all 1½ in. fire hose in hose cabinets or racks used for interior fire fighting. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. In general, GSA has eliminated racked fire hose in office type buildings. However, such hose may be maintained in storage facilities and other facilities such as Federal Record Centers, where persons are trained in hose use. 5. The following work is to be performed in conjunction with maintenance on Fire Department Hose Connections. 6. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: Standard Tools – Basic.

FLSF-HSE-01-01Y Frequency: Annually
Fire Hose – 1.5 inch. Racked in Buildings
Application: This standard applies to all 1½ in. fire hose in hose cabinets or racks used for interior fire fighting. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. In general, GSA has eliminated racked fire hose in office type buildings. However, such hose may be maintained in storage facilities and facilities such as Federal Record Centers, where persons are trained in hose use. When replacement is made, the new hose shall be of woven synthetic fiber, single jacketed, with lining, equipped with a plastic combination straight stream-fog nozzle with shutoff. Hose and nozzle are available through the Federal Supply Schedule, Class 4210. 5. The following work is to be performed in conjunction with annual maintenance on Fire Department hose Connections. 6. A flow test is to be conducted every five years by flowing the required volume of water at the design pressures to the hydraulically most remote, highest, or dead-end hose connection of each zone of the standpipe system. Contact the regional Safety & Environmental Management Branch for the correct procedures for the test. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic. 2. Hose testing equipment. 3. Water flow testing equipment.

FLSF-HSE-02-03M Frequency: Quarterly
Fire Department Hose Connections – Standpipe Outlets Application: This standard applies to the standpipe system and hose connections in the building for use by the fire department. These components are typically located in stairwells and on the exterior of the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. Perform this work in conjunction with fie hose maintenance, where applicable. 6. When cracking the valve, do not stand directly in front of the opening. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: Tool Group C.

FLSF-HSE-02-05Y Frequency: 5-Year
Fire Department Hose Connections – Standpipe Outlets Application: This standard applies to the fire standpipe system and fire hose connections in the building for use by the fire department. These system components are typically located in stairwells and on the exterior of the building. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or supervisory signal. The field office manager and the control center, central station or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. The following work is to be performed in conjunction with fire hose maintenance. 6. When opening the valve, do not stand directly in front of the opening. 7. Hydrostatic testing requires experienced personnel and proper water flow testing equipment. Contact the regional Safety and Environmental (S&EM) Branch for correct procedure and assistance. The S&EM Branch may decide to contract for this service. 8. Record the results of these checks in an appropriate format. 9. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group C. 2. Water flow testing equipment

FLSF-HSE-03-01M Frequency: Monthly
Fire Department Pumper Connections – Standpipe or Sprinkler Application: This standard applies to all fire department pumper connections to the building standpipe and sprinkler systems. Fire departments will connect a large hose to these connections and utilized there equipment to pressurize and delver water for fire fighting purposes. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Never stand directly in front of connection when removing cap. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: Standard Tools – Basic.

FLSF-HYD-01-05Y Frequency: 5-Year
Fire Hydrant Flow Test-Dry Barrel and Wet Barrel
Application: This standard applies to all fire hydrants, including wall and flush hydrants, in both interior and exterior locations. Special Instructions. 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. All hydrants are to be inspected after each operation. 5. Dry barrel (frost proof) hydrants are always to be checked in the fall before the first frost. 6. Wet barrel hydrants only have to be inspected annually. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points. Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Hydrant wrench. 3. Lubricants – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

FLSF-HYD-01-06M Frequency: Semi-annually
Fire Hydrants -Dry Barrel and Wet Barrel
Application: This standard applies to all fire hydrants, including wall and flush hydrants, in both interior and exterior locations. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Flow test dry barrel (frost proof) hydrants in the fall before the first frost. 5. When flow testing hydrants in interior locations, use fire hose to direct the flow of water outside of the building. 6. Hydrant flow testing requires the use of at least two hydrants: 7. Pressure hydrant – The hydrant closest to the building. 8. Flow hydrant – The next closest hydrant from the pressure hydrant on the downstream side of the water supply. 9. Although hydrant flow testing is fairly simple and straight forward, guidance and assistance can be obtained from the Chief, Safety and Environmental Management Branch/Division if needed. 10. Coordinate flow testing with the regular semi-annual hydrant inspection of this standard. 11. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check Points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Pitot tube with pressure gauge. 3. Hydrant cap with gauge and bleeder petcock. 4. Tape marked in 16ths of an inch.

  1. Hydrant wrench.

FLSF-PMP-01-01W Frequency: Weekly
Fire Pump – Diesel Engine Driven
Application: This standard applies to all fire pumps powered by a diesel engine. The fire pumps are required to start automatically to provide water pressure into mid-rise and highrise buildings. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at the completion of work. 5. Qualified operating personnel shall be in attendance during the weekly pump operation. 6. Hearing protection is required whenever the diesel engine is running. 7. Tests of diesel engine driven pumps shall be conducted without flowing water. 8. First Test – On systems that do not have a manual start button, close starting circuit mechanically. Run long enough to ensure engine is running properly. 9. Second Test – Test shall be conducted by allowing automatic starting of the pump to occur. The diesel pump shall run a minimum of 30 minutes. 10. The following items shall be checked and tested in order to ensure that the pump assembly is in operating condition and is free from physical damage. 11. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Battery tester.

  1. Hearing protection.

FLSF-PMP-01-01M Frequency: Monthly
Fire Pump – Diesel Engine Driven
Application: This standard applies to all fire pumps powered by a diesel engine. The fire pumps are required to start automatically to provide water pressure into mid-rise and highrise buildings. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at the completion of work. 5. This standard establishes three extra check points to be performed once each month on all fire pumps that are equipped with automatic starting features. 6. Hearing protection is required whenever the diesel engine is running. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group C. 2. Battery Tester 3. Hearing protection.

FLSF-PMP-01-03M Frequency: Quarterly
Fire Pump – Diesel Engine Driven
Application: This standard applies to all fire pumps powered by a diesel engine. The fire pumps are required to start automatically to provide water pressure into mid-rise and highrise buildings. These checks are in addition to the weekly and monthly checks required by this standard and NFPA. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. This standard establishes six extra check points to be performed once each quarter on all fire pumps that are powered by diesel engines. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check point: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Battery tester.

FLSF-PMP-01-01Y Frequency: Annually
Fire Pump – Diesel Engine Driven
Application: This standard applies to all fire pumps powered by a diesel engine. The fire pumps are required to start automatically to provide water pressure into mid-rise and highrise buildings. These checks are in addition to the weekly and monthly checks required by this standard and NFPA. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. A yearly test shall be made at full pump capacity and over to make sure that neither pump nor suction pipe is obstructed. Guidance and assistance should be obtained from the Chief, Safety and Environmental Management Branch/Division. 6. Hearing protection is required whenever the diesel engine is running. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group C. 2. Coolant. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients. 3. Engine oil. Consult the MSDS for hazardous ingredients. 4. Oil, air, fuel filters.

  1. Cleaning equipment and materials. Consult the MSDS for hazardous ingredients and proper PPE. 6. Tune-up kit. 7. Hearing Protection.

FLSF-PMP-02-01W Frequency: Weekly
Fire Pump – Electric Motor Driven
Application: This standard applies to all fire pumps powered by an electric motor. This fire pump is required to start automatically when receiving a signal form the fire alarm panel or activated by fire department personnel. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at the completion of work. 5. Qualified operating personnel shall be in attendance during the weekly pump operation. 6. Tests of electric motor driven pumps shall be conducted without flowing water. 7. First Test – On systems which do not have a manual start button, close starting circuit mechanically. Run long enough to ensue motor is running smoothly. 8. Second Test – Test shall be conducted by allowing automatic starting of the pump to occur. The electric pump shall run a minimum of 10 minutes. 9. The following items shall be checked and tested in order to ensure that the pump assembly is in operating condition and is free from physical damage. 10. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25.

Recommended Tools, Materials, and Equipment: 1. Tool Group B. 2. Battery tester.

FLSF-PMP-02-01M Frequency: Monthly
Fire Pump – Electric Motor Driven
Application: This standard applies to all fire pumps powered by an electric motor. This fire pump is required to start automatically when receiving a signal form the fire alarm panel or activated by fire department personnel. These checks are in addition to the weekly checks required by this standard and NFPA. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at the completion of work. 5. This standard establishes two extra check points to be performed once each month on all fire pumps that are equipped with automatic starting features. (See Standard No. FLSF-PMP-02). 6. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check point: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: Standard Tools – Basic.

FLSF-PMP-02-01Y Frequency: Annually
Fire Pump – Electric Motor Driven
Application: This standard applies to all fire pumps powered by an electric motor. This fire pump is required to start automatically when receiving a signal form the fire alarm panel or activated by fire department personnel. These checks are in addition to the weekly and monthly checks required by this standard and NFPA. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. A yearly test shall be made at full pump capacity and over to make sure that neither pump nor suction pipe is obstructed. Guidance and assistance should be obtained from the Chief, Safety and Environmental Management Branch/Division. 6. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: Tool Group C.

FLSF-VLV-01-01W Frequency: Weekly
Dry Pipe, Deluge and Preaction Valves
Application: This standard applies valves which are exposed to cold weather. These valve operate to provide water into the piping when a fire event requires activation. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 5. Follow NFPA 25 for system operation and maintenance requirements. Check points Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic.

FLSF-VLV-01-01M Frequency: Monthly
Dry Pipe, Deluge and Preaction Valves
Application: This standard applies to all dry pipe, deluge, and preaction sprinkler valves. These valve operate to provide water into the piping when a fire event requires activation. Special Instructions: 1. Due to the special requirements for maintaining these types of valves, it is recommended that the servicing of these valves be provided by a fire equipment company experienced in this type of service. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions. 4. The work required by this procedure may cause activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start of work and at the completion of work. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. If drains are not piped to the outside of the building, take necessary steps to prevent water damage during water flow alarm test. Rate of discharge may exceed capacity of floor drain. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 8. Follow NFPA 25 for system operation and maintenance requirements. Check Points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: Standard Tools – Basic.

FLSF-VLV-01-01Y Frequency: Annually
Dry Pipe, Deluge and Preaction Valves
Application: This standard applies to all dry pipe, deluge, and preaction sprinkler valves. These valve operate to provide water into the piping when a fire event requires activation. Special Instructions: 1. Due to special requirements for maintaining these types of valves, it is recommended that the servicing of these valves be provided by a fire equipment company experienced in this type of service. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions. 4. The work required by this procedure may cause activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start of work and at the completion of work. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. If drains are not piped to the outside of the building, take necessary steps to prevent water damage during water flow alarm test. Rate of discharge may exceed capacity of floor drain. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 8. Follow NFPA 25 for system operation and maintenance requirements. Check Points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic.

FLSF-VLV-01-05Y Frequency: 5-Year
Dry Pipe, Deluge and Preaction Valves: Strainers, Filters and Orifices Application: This standard applies to all strainers, filters and orifices. Dry pipe, deluge and preaction valves operate to provide water into the piping when a fire event requires activation. Special Instructions: 1. Due to special requirements for maintaining these types of valves, it is recommended that the servicing of these valves be provided by a fire equipment company experienced in this type of service. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions. 4. The work required by this procedure may cause activation of an alarm and/or a supervisory signal. The field office manager, control center, central station, and/or fire department that will receive the alarm and/or signal must be notified prior to start of work and at the completion of work. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. If drains are not piped to the outside of the building, take necessary steps to prevent water damage during water flow alarm test. Rate of discharge may exceed capacity of floor drain. 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 8. Follow NFPA 25 for system operation and maintenance requirements. Check Points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic.

FLSF-VLV-02-01M Frequency: Monthly
Post Indicator Valves
Application: This standard applies to all valves controlling water-based fire protection systems that have an indicating post that tells whether the valve is open or shut. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start of work and at the completion of work. 5. This work should be done when other scheduled maintenance is being performed that involves other water flow control valves. (See Standard Nos. FLSF-ALM-01, FLSF-VLV-01, and FLSF-VLV-03). 6. Whenever the valve is closed, a clearly visible impairment tag is to be installed on the valve and the fire department connection. A typical impairment tag is illustrated in the National Fire Protection Association Standard 25, “Inspection, Testing, and Maintenance of Water-Based Fire Protection Systems.” 7. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 8. Follow NFPA 25 for system operation and maintenance requirements. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group C. 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

  1. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE.

 

FLSF-VLV-03-01W Frequency: Weekly
Fire Control Valves
Application: This standard card applies to all valves controlling water-based fire protection systems, including outside control valves and post indicating valves. This is for visual inspection only. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule shutdown with operating personnel, as needed. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 25 for system operation and maintenance requirements. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment. Tool Group C.

FLSF-VLV-03-01M Frequency: Monthly
Fire Control Valves
Application: This standard card applies to all valves controlling water-based fire protection systems, including outside control valves and post indicating valves. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule shutdown with operating personnel, as needed. 5. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 6. Follow NFPA 25 for system operation and maintenance requirements. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment. Tool Group C.

FLSF-VLV-03-01Y Frequency: Annually
Fire Control Valves
Application: This standard card applies to all valves controlling water-based fire protection systems, including outside control valves and post indicating valves. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The work required by this procedure may cause the activation of an alarm and/or a supervisory signal. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 5. Whenever the valve is closed, a clearly visible impairment tag is to be installed on the valve and the fire department connection. A typical impairment tag is illustrated in the National Fire Protection Association Standard 25, “Inspection, Testing, and Maintenance of Water-Based Fire Protection Systems.” Most fire system control valves are normally in the open position. 6. This work should be done when other annually scheduled maintenance is being performed that involves water flowing through valve(s). 7. See other portions of this standard for special annual maintenance requirements for post indicator valves. 8. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 9. Follow NFPA 25 for system operation and maintenance requirements. Check points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: Tool Group C.

FLSF-VLV-04-01Y Frequency: Annually
Valves, Fire System Pressure Regulating
Application: This applies to all pressure regulating type valves located in automatic sprinkler systems, fire department standpipe hose connections, and standpipe connections with 1.5 in. racked fire hose. These valves are found in combined automatic sprinkler and standpipe systems as well as in standpipe systems. Refer to an appropriate diagram of a typical system as necessary. Special Instructions: 1. Due to the special requirements for maintaining these types of valves, it is recommended that the servicing of these valves be provided by a fire equipment company experienced in this service. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The purpose of this flow test is to determine if the system design water flow can be met with the current valve pressure settings. 6. The work required by this procedure may cause the activation of an alarm and/or supervisory signal. Tamper switches may be provided. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 7. This work should be done when other annually scheduled maintenance is being performed involving water flowing through valve(s). 8. Check what the design pressure downstream from the pressure regulating valve is from the automatic sprinkler system design documents so that the pressure can be verified during the flow test. This design pressure will have been determined for the monthly inspections 9. A pressure gage is required on both the upstream and downstream sides of the pressure reducing valve in order to accomplish this flow test. 10. Some valves can be adjusted in the field while others are preset and must be returned to the factory for adjustment. To establish the pressure setting, the following three variables must be known: (1) valve inlet pressure, (2)

required outlet design pressure, and (3) required flow. Contact the Regional S&EM Office for assistance if you have any questions or if test procedures are not clear. 11. When valves are returned to the factory for testing or adjustment, care must be taken to reinstall them on the same floor from which they were removed. This is to ensure that valves with the proper pressure settings are reinstalled according to the system design. Design pressure settings will vary from floor to floor. 12. Waterflow testing requires experienced personnel and proper water flow testing equipment. Contact the regional Safety and Environmental S&EM Branch for correct procedure and assistance. The S&EM Branch may decide to contract out for this service. 13. Follow NFPA 72 National Fire Alarm Code (most recent version) for fire alarm system operation and maintenance requirements. Chapter 10 of NFPA 72 specifically covers the testing, maintenance and inspection of fire alarm systems. Check Points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group C 2. Water flow testing equipment.

FLSF-VLV-04-05Y Frequency: 5-Year
Valves, Fire System Pressure Regulating
Application: This applies to all pressure regulating type valves located in automatic sprinkler systems, fire department standpipe hose connections, and standpipe connections with 1.5 in. racked fire hose. These valves are found in combined automatic sprinkler and standpipe systems as well as in standpipe systems. Refer to an appropriate diagram of a typical system as necessary. Special Instructions: 1. Due to the special requirements for maintaining these types of valves, it is recommended that the servicing of these valves be provided by a fire equipment company experienced in this service. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 3. Review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The purpose of this flow test is to determine if the system design water flow can be met with the current valve pressure settings. 6. The work required by this procedure may cause the activation of an alarm and/or supervisory signal. Tamper switches may be provided. The field office manager and the control center, central station, or fire department that will receive the alarm and/or signal must be notified prior to start and at completion of work. 7. This work should be done when the standpipe systems are flow tested. 8. Check what the design pressure downstream from the pressure regulating valve is from the automatic sprinkler system design documents so that the pressure can be verified during the flow test. This design pressure will have been determined for the monthly inspections 9. A pressure gage is required on both the upstream and downstream sides of the pressure reducing valve in order to accomplish this flow test. 10. Some valves can be adjusted in the field while others are preset and must be returned to the factory for adjustment. To establish the pressure setting, the following three variables must be known: (1) valve inlet pressure, (2) required outlet design pressure, and (3) required flow. Contact the

Regional S&EM Office for assistance if you have any questions or if test procedures are not clear. 11. When valves are returned to the factory for testing or adjustment, care must be taken to reinstall them on the same floor from which they were removed. This is to ensure that valves with the proper pressure settings are reinstalled according to the system design. Design pressure settings will vary from floor to floor. 12. Waterflow testing requires experienced personnel and proper water flow testing equipment. Contact the regional Safety and Environmental S&EM Branch for correct procedure and assistance. The S&EM Branch may decide to contract out for this service. 13. The inspection, testing, repairs, and maintenance of all fire protection equipment and systems shall be in accordance with the requirements in the applicable NFPA code or standard. 14. Follow NFPA 25 for system operation and maintenance requirements. Check Points: Refer to NFPA 25. Recommended Tools, Materials, and Equipment: 1. Tool Group C 2. Water flow testing equipment.

HVAC-ACR-01-01M Frequency: Monthly
Computer Room Air-Conditioning Unit, Package: or Special Systems Application: This PM standard applies to air conditioning units that may have the evaporator, compressor, fan unit components, and condenser within a single housing or may have the condenser separate from the housing. These units can be fan coils, heat pumps or spilt A/C units. This equipment is typically found in computer rooms, but may also be found in special purpose rooms such as CAD rooms or laboratories. Special Instructions: 1. Review manufacturer’s instructions. 2. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 3. Perform any required drycooler or air cooled condenser maintenance simultaneously with this PM. 4. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 5. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 6. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 7. Recover, recycle, or reclaim the refrigerant as appropriate. 8. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the equipment. 9. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 10. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 11. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. Check points: 1. Thoroughly inspect and clean interior and exterior of machine with wet/ dry vacuum, (remove panels).

  1. Clean drain pan and note excessive corrosion, prepare and paint necessary. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. 3. Perform checks according to the type of unit. a) Chilled water/Condenser Water units: i. Check for water leaks on all lines, valves, strainers, coils, etc. If leaks are not able to be stopped or corrected, report leak status to supervisor. ii. Clean strainer on chilled water unit. b) Direct expansion units: i. Check for refrigeration leaks on all lines, valves, fittings, coils, etc., using a halogen leak detector or similar testing device. If leaks are not able to be stopped or corrected, report leak status to supervisor. 4. Check refrigerant levels and recharge if needed. Consult the MSDS for disposal requirements. Reclaimed and recycled CFCs are exempt from hazardous waste regulations (Consult 40 CFR Part 261). 5. Check condition of cooling and reheat coils. Use fin comb if needed to straighten fins. 6. A dirty coil surface can be cleaned using a coil cleaner solution and warm water. 7. Drain and clean humidifier drip pan, replace pan if applicable. Remove scale and paint if necessary. 8. Lubricate motor and fan bearings, if not sealed. Check alignment of motor and fan. Clean fan or blower. 9. Check belt tension and condition. Adjust or replace as required. 10. Replace prefilters if needed. 11. Replace final filters if needed. 12. Check compressor oil level if compressor has a sight glass. 13. Run machine, check action of controls, relays, switches, etc. to see that: a) compressor(s) run at proper settings. b) reheat coils activate properly. c) humidistat activates humidifier. d) suction and discharge pressures are proper.
  2. e) discharge air temperature is set properly. 14. Check and adjust vibration eliminators. Replace if required. 15. Check and tighten all electrical terminals, connections, and disconnect switches. 16. Remove all trash or debris from work area. Consult the MSDS for proper personal protective equipment (PPE). 17. If applicable, clean and test condensate pump and alarm. Recommended Tools, Materials, and Equipment: 1. Tool Group A 2. Cleaning tools and materials, vacuum, fin comb, grease gun and oil, filters and prefilters, spare belts. 3. Clamp meter (volt-ohm-amp meter). 4. Paint and brushes as required. Consult the MSDS to ensure that the paint lead level is 0.06% or less. 5. Self sealing quick disconnect refrigerant hose fittings 6. Refrigerant recovery/recycle unit 7. EPA/DOT approved refrigerant storage tanks. 8. Safety goggles. 9. Gloves. 10. Electronic leak detector.

HVAC-ACR-02-01Y Frequency: Annually
Heat Pumps, Water Cooled (WSHP)
Application: This standard card applies to those air conditioning machines that are designed to heat as well as cool a space or building with a water cooled condenser. Like package unit air conditioning machines, these have a evaporator, compressor, fan unit components, and a water cooled condenser. These will be split systems. For package type heat pumps, refer to the standard for package air handlers. The unit may contain supplemental electric heating elements to aid in heating the space if temperatures fall below 40F The other portion of a split system, i.e., a refrigeration condensing unit, is to be serviced in conjunction with this PM activity. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 5. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 6. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 7. Recover, recycle, or reclaim the refrigerant as appropriate. 8. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the equipment. 9. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 10. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 11. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers.

Check points: 1. Inspect piping for evidence of leaks and vibration. If leaks are not able to be stopped or corrected, report leak status to supervisor. 2. Inspect all wiring for deterioration, and tighten electrical contacts. Check for corrosion, clean, prime, and paint as necessary. 3. Check mounting bolts and tighten if needed. 4. Check crankcase heater. 5. Check fan for vibration or excessive noise. Lubricate fan and motor if required. 6. Check refrigerant levels, recharge if necessary. Check for leaks if loss of refrigerant is detected, using halide leak detector and soap bubbles. If leaks are not able to be stopped or corrected, report leak status to supervisor. Consult the Material Safety Data Sheets (MSDS) for disposal requirements. Reclaimed and recycled CFCs are exempt from hazardous waste regulations (Consult 40 CFR Part 261). 7. Check temperature drop across condensing coil. 8. Check condensing coil and connected hoses for water leaks. 9. Clean air intake and screens; change filters as necessary. 10. Brush or pressure wash coil surfaces. Straighten fins with fin comb. 11. Check that reversing valve is energized in the “heat” mode and deenergized in the “cool” mode. Replace defective valves. 12. Check all electrical connections and fused disconnect switches. 13. Check electrical resistance heat if present for proper operation and cycling. 14. Check all controls, indoor and outdoor thermostats, timers, and control delays, especially for units with electric supplemental heaters. Repair or replace as necessary. 15. Check oil if compressor is equipped with a sight glass. 16. Clean up work area. 17. If applicable, clean and test condensate pump and alarm. Recommended Tools, Materials, and Equipment: 1. Tool Group A 2. Lubricants. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 3. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE.

  1. Fin comb 5. Vacuum or pressure washer. 6. Self sealing quick disconnect refrigerant hose fittings 7. Refrigerant recovery/recycle unit 8. EPA/DOT approved refrigerant storage tanks. 9. Safety goggles. 10. Gloves. 11. Approved refrigerant. 12. Electronic leak detector.

HVAC-ACR-03-01Y Frequency: Annually
Air Conditioning Unit or Heat Pump Split System,
Application: This standard card applies to air conditioning units and heat pumps that have remote condensers (split systems). The other portion of the split system, i.e., a refrigeration condensing unit, air or water cooled, or a packaged type chilled water unit, is to be serviced in conjunction with this PM activity. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. A/C machine maintenance should be scheduled to coincide with condensing unit or package chiller maintenance as noted above. 5. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 6. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 7. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 8. Recover, recycle, or reclaim the refrigerant as appropriate. 9. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal. 10. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 11. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 12. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. Check Points:

  1. Thoroughly inspect and clean interior and exterior of machine with vacuum (remove panels). 2. Clean drain pan and note excessive corrosion. Treat rusted areas with rust inhibitor. Ensure that the rust inhibitor chemical does not add volatile organic compounds or contaminants to the drain pan. If possible, rinse well after application or choose a less hazardous material. Consult the chemicals Material Safety Data Sheet (MSDS) for this information. 3. Perform checks according to the type of unit. a) Chilled water units: i. 1). Check for chilled water leaks on all lines, valves, strainers, coils, etc. If leaks are not able to be stopped or corrected, report leak status to supervisor. ii. 2). Clean strainer on chilled water unit. b) Direct expansion units: iii. Check for refrigeration leaks on all lines, valves, fittings, coils, etc., using a halogen leak detector or similar testing device. If leaks are not able to be stopped or corrected, report leak status to supervisor. 4. Check condition of cooling and reheat coils. Use fin comb if need to straighten fins. 5. Clean coils. Use detergent solution and warm water if coil is heavily soiled. 6. Drain and clean humidifier pan or pad, whichever applies. Replace pad if required. Remove corrosion as needed. 7. Clean and lubricate motor and squirrel cage fan(s). Check alignment of motor and fan. Check bearings for excessive wear. 8. Check belt tension and condition. Adjust or replace as required. 9. Replace pre-filters if needed. 10. Replace final filter if needed. 11. Run machine, check action of controls, relays, switches, etc., to see that: a) Chilled water units: i. Chilled water valve(s) are operating properly. ii. Reheat coils activate properly. iii. Humidistat activates humidifier. iv. Valves regulating water pressure are proper on cooling. v. discharge air temperature is set properly.
  2. 6). Check and record chilled water inlet and outlet temperatures. b) Direct expansion units: i. Humidistat activates humidifier. ii. Reheat coils activate properly. iii. Discharge air temperature is set properly. 12. Check and adjust vibration eliminator mountings if equipped. Repair or replace if required. 13. If applicable, clean and test condensate pump and alarm Recommended Tools, Materials, and Equipment: 1. Tool Group A. 2. Cleaning tools, grease gun, oil and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 3. Vacuum 4. Fin comb 5. Filters 6. Spare V-belts 7. Self-sealing quick disconnect refrigerant hose fittings, if applicable. 8. Refrigerant recovery/recycling unit, if applicable. 9. EPA/DOT approved refrigerant storage tanks. 10. Safety goggles 11. Gloves 12. Approved refrigerant. 13. Electronic leak detector.

HVAC-ACR-04-01Y Frequency: Annually
Air Conditioning Unit, Ceiling/Wall/Window Mounted
Application: This standard card applies to special purpose or critical use, ceiling or wall mounted air conditioning units, i.e., mini-mates or ductless split type units. The unit may be either air cooled or water cooled. Humidifiers will be operated on those units serving computer space and will be inventoried and serviced under this standard card. Special Instructions: 1. Schedule outage with operating personnel. 2. Schedule PM on associated equipment in conjunction with this standard, i.e., air cooled condensers, glycol dry coolers, cooling tower, etc. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 5. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 6. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 7. Recover, recycle, or reclaim the refrigerant as appropriate. 8. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the equipment. 9. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 10. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 11. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. Check Points: 1. Thoroughly inspect and clean interior and exterior of machine with vacuum (remove panels). 2. Clean drain pan and note excessive corrosion. Correct as necessary.

  1. Check for refrigerant leaks using a halogen leak detector, soap bubbles, or similar testing device. If leaks are not able to be stopped or corrected, report leak status to supervisor. Consult the Material Safety Data Sheets (MSDS) for disposal requirements. Reclaimed and recycled CFCs are exempt from hazardous waste regulations (Consult 40 CFR Part 261). 4. Check refrigerant levels and recharge if necessary. 5. Check condition of cooling and reheat coils. Use fin comb as needed. 6. Clean coils using detergent solution and warm water if coil is heavily soiled. 7. Drain and clean humidifier pan or pad, whichever applies. Replace pad if required. Remove corrosion, prime, and paint as needed. 8. Lubricate motor and fan bearings, if not sealed. Check alignment of motor and fan. Clean all fans or blowers. 9. Check belt tension and condition. Adjust or replace as required if belt driven. 10. On direct drive units, check set screws on fan shaft to make sure they are tight. 11. Replace filters as needed. 12. Check compressor oil level (not on hermetically sealed 13. units) if compressor is equipped with a sight glass. 14. Run machine. Check action of controls, relays, switches, including fused disconnect type, etc., to see that: 15. compressor(s) run at proper setting. 16. reheat coils activate properly (if applicable). 17. humidistat activates humidifier (if applicable). 18. suction and discharge pressures are proper. 19. discharge temperature is set properly. 20. If applicable, clean and test condensate pump and alarm. 21. Clean up work area. Recommended Tools, Materials, and Equipment: 1. Tool Group A. 2. Cleaning tools and materials. 3. Vacuum. 4. Fin comb.
  2. Grease gun and oiler. 6. Ladder constructed according to OSHA/ANSI standards – ceiling mounted units. Check ladder for defects. Do not use defective ladders. 7. Self sealing quick disconnect refrigerant hose fittings. 8. Refrigerant recovery/recycle unit. 9. EPA/DOT approved refrigerant storage tanks. 10. Safety goggles. 11. Gloves. 12. Approved refrigerant. 13. Electronic leak detector.

HVAC-ACR-05-01Y Frequency: Annually
Air-Cooled Condenser
Application: This PM standard applies to equipment which has the condenser, fan(s), and fan motor(s) enclosed within the same housing. The compressor and other components are at a separate location. PM of these other devices should be scheduled simultaneously with the units serviced by the condenser. If the condenser motor(s) is/are rated at 1 HP or higher, schedule PM of motor(s) with this PM. Special Instructions: 1. Review manufacturer’s instructions. 2. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 3. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 4. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 5. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 6. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 7. Recover, recycle, or reclaim the refrigerant as appropriate. 8. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the equipment. 9. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 10. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 11. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. Check points: 1. Remove debris from air screen and clean underneath unit. 2. Pressure wash coil with coil cleaning solution.

  1. Straighten fin tubes with fin comb. 4. Check electrical connections for tightness. 5. Check mounting for tightness. 6. Check for and remove all corrosion or rust from unit and supporting steel, prime and paint as necessary. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. Consult the MSDS for proper personal protective equipment (PPE). 7. Check fan blades and belts. Clean fan blades as necessary. 8. Check wires at condenser electrical fused safety switches for tightness and burned insulation. Repair as necessary. 9. Clean up work area. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. High pressure washer 3. Fin comb 4. Paint brushes 5. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE. 6. Respirator 7. Safety goggles 8. Gloves. 9. Self sealing quick disconnect refrigerant hose fittings 10. Refrigerant recovery/recycle unit 11. EPA/DOT approved refrigerant storage tanks.

HVAC-ACR-06-01Y Frequency : Annually
Evaporative Condenser
Application: An evaporative condenser is similar to a cooling tower except the heated refrigerant is piped into the unit where water is sprayed over the coils and a fan blows air through the coils. The air flow increases the evaporation rate of the water thereby cooling the coils. The left over water in the basin (sump) is recirculated through the unit. Makeup water is added to the system to counteract water lost due to evaporation. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Perform cleaning of the condenser in accordance with the PM standard for “Cooling Tower – Cleaning” before performing this PM activity 4. Schedule performance of this PM activity prior to seasonal start-up. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations regarding refrigerant, as they apply to protection of stratospheric ozone. 7. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 8. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 9. Recover, recycle, or reclaim the refrigerant as appropriate. 10. If disposal of the appliance is required, follow regulations concerning removal of refrigerants and disposal of the appliance. 11. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 12. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide.

  1. For refrigerant type units, closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. 14. Properly dispose of any debris, excess oil, and grease. 15. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. Children of this Piece of Equipment 1. Fan Motors 2. Variable Frequency Drive 3. Control Valves Check points: 1. Exterior Structural: a. Inspect louvers for correct position and alignment, missing or defective items, and supports. Examine for ice damage. b. Inspect casings and attaching hardware for leaks or defects. c. Inspect condition of access doors and hinges. Repair as necessary. d. Inspect the distribution system, including flange connectors and gaskets, caulking of headers, deterioration in distribution basins, splash guards, and associated piping. e. Check screens. f. Inspect stairways (if applicable), including handrails, knee rails, stringers, structure, and fasteners for rot, corrosion, security, and acid attack. g. Shake ladders (if applicable) to verify security. Check all rungs. Verify compliance with Occupational Safety and Health (OSHA) regulations regarding height requirements. h. Fan cylinders must be securely anchored. Check fastening devices. Note any damaged, corroded, or missing items. Verify proper tip clearance between the fan blade and interior of the cylinder. Verify compliance with OSHA requirements regarding height. Check its condition. i. Apply protective coatings as needed on metal surfaces. Be sure rust and dirt have been removed first. 2. Interior Structural: a. Inspect the distribution system piping for decay, rust, or acid attack. Check the condition and tightness of water and coil connections. Observe spray pattern of nozzles if possible and note missing and defective nozzles. b. Inspect mechanical equipment supports and fasteners for corrosion. Check condition of springs or rubber vibration absorption pads, including adjusting bolts, ferrous members, and rubber pads.
  2. Check valves, float valve, and continuous bleed line (should be open). Check operating condition of fire detection system, if installed. Check for corrosion of pipes and connectors. Check wiring of any thermocouple installed. d. Inspect condenser fill for damage, ice breakage, deterioration, or misplaced, missing, or defective splash bars. e. Examine interior structural supports. Look for iron rot of metal fasteners. Check condition of steel internals. Check condition and tightness of bolts. f. Inspect the nuts and bolts in partitions for tightness and corrosion. Check condition of steel supports for rot and corrosion. g. Check steel cold water basins for corrosion and general condition. h. Check all sumps for debris, condition of screens, anti-turbular plates, and freely operating drain valves. 3. Mechanical: a. Check alignment of gear, motor, and fan(s). b. Check fan(s) and air inlet screens. Remove any dirt or debris. 1). Check hubs and hub covers for corrosion and condition of attaching hardware. 2). Inspect blade clamping arrangement for tightness and corrosion. c. Gear box: 1) Clean out any sludge. 2) Change oil in gear reducer. Be sure gear box is full to avoid condensation. 3) Rotate input shaft manually back and forth to check for backlash. 4) Attempt to move the shaft radially to check for wear on the input pinion shaft bearing. 5) Look for excessive play of the fan shaft bearings by applying force up and down on the tip of a fan blade. (Note: Some output shafts have a running clearance built into them.) d. Power transmission: 1) Check that the drive shaft and coupling guards are installed and that there are no signs of rubbing. Inspect the keys and set screws on the drive shaft and check the connecting hardware for tightness. Tighten or install as required. 2) Look for corrosion, wear, or missing elements on the drive shaft coupling. 3) Examine the exterior of the drive shaft for corrosion. Check the interior by tapping and listening for dead spots. 4) Observe flexible connectors of both ends of the shaft. 5) Inspect bearings, belts, and pulleys for excessive noise, wear or cracking, alignment, vibration, looseness, surface glazing, tension. Replace or repair as necessary. e. Inspect condenser coil, fins, sprays, connections, etc. Clean if required.
  3. Check water distribution. Adjust water level and flush out troughs if necessary. Check all piping, connections, and brackets for looseness. Tighten loose connections and mounting brackets. Replace bolts and braces as required. g. Check nozzles for clogging and proper distribution. h. Check pump. Lubricate as required. i. Check water treatment equipment for proper operation and condition. Clean and paint as necessary. 4. Electrical: a. Check electrical motor for excessive heat and vibration. b. Inspect wiring, conduit, and electrical controls for loose connections, charred or broken insulation, or other defects. Tighten, repair, or replace as necessary. c. Remove dust from air intakes and check for corrosion. Check TEFC motors for condition of air passages and fans. d. If there is a drain moisture plug installed, see if it is operational. e. Check motor and starters. Check amps and volts at operating loads. f. Look for corrosion and security of mounting bolts and attachments. Recommended Tools, Materials, and Equipment: 1. Tool Groups A and C. 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE. 4. Safety goggles. 5. Work gloves. 6. Ladders of appropriate size constructed in accordance with OSHA/ANSI standards or scaffolding. Check ladders for defects. Do not use defective ladders. 7. Volt-amp meter. 8. High pressure washer. 9. Protective coatings, brushes, solvents, etc. Consult the MSDS for hazardous ingredients and proper PPE.

HVAC-AHU-01-02M Frequency: Bi-Monthly Built Up Air Handler, Predictive Maintenance Application This standard applies to predicatively changing out filters for built-up air handlers over 5,000 CFM with chilled water and/or hot water and/or steam coils that are fed from central plant(s). This is accomplished by calculating the pressure drop across filters. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions 3. Follow lock out.tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule shutdown with operating personnel as needed. 5. Preventative maintenance on associated equipment should be accomplished at this time. Check Points 1. Differential pressure sensors should be installed across each filter bank and should report values to Building Automation System. 2. Determine the set point for each differential pressure sensor that should trigger a filter change. Some of the factors that should be considered include: a. Manufacturer’s recommendations for filter changes b. Operational issues (indoor air quality, number of service calls, etc.) c. Cost of filter replacement d. Cost of increased energy usage due to filter loading 3. Enter the determined operational set point into the system as a maintenance alarm or signal to the CMMS system to generate a work order. Recommended Tools, Materials, and Equipment: 1. Standard Tools – Basic 2. Filter replacement 3. Vacuum 4. Respirator

HVAC-AHU-01-01Y: Frequency: Annually
Built Up Air Handler
Application This standard applies to built-up air handlers over 5,000 CFM with chilled water and/or hot water and/or steam coils that are fed from central plant(s). O&M contractors may propose changes to this standard. Such changes are subject to GSA approval. Proposed changes to standards must be submitted showing markups of changes for GSA approval. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule shutdown with operating personnel, as needed. 5. Preventive maintenance on associated equipment should be accomplished at this time. Parent of this Piece of Equipment None Children of this Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of the GSA standard for the detailed PM requirements for the children equipment. 1. Supply and Return Fan Motors, ELEC-MOT-01-01Y. 2. Variable Frequency Drives ELEC-VFD-01-01Y. 3. Filters HVAC-FLT-“XX”-03M (XX depending on the type of filter used) 4. Dampers HVAC-DMP-01-01Y. 5. Control Valves HVAC-VLV-01-01Y Check Points: 1. Check fan blades for dust buildup and clean if necessary. 2. Check fan blades and moving parts for cracks and excessive wear. 3. Check fan RPM against design specifications. 4. Check running motor amperatures on all three phases. Compare with manufacturer’s specifications. 5. Tighten all electrical connectors/lugs to proper torque. 6. If unit is a multi-zone air handler, then check each individual zone damper and associated controls. 7. Check bearing collar set screws on fan shaft to make sure they are tight. 8. Check dampers for dirt accumulations, clean as necessary. Check belt, repair or replace as necessary.

  1. Check damper actuators and linkage for proper operation. Adjust linkage on dampers if out of alignment. 10. Lubricate mechanical connections of dampers sparingly. 11. Clean coils by brushing, blowing, vacuuming, or pressure washing. 12. Check coils for leaking, tightness of fittings. 13. Use fin comb to straighten coil fins. 14. Flush and clean condensate pans and drains, remove all rust prepare metal and paint. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. Hose down coils and drain pans and wash with an appropriate EPA approved solution approved solution. Treat condensate pans with an EPA approved biocide. 15. Check belts for wear and cracks, adjust tension or alignment. Replace belts when necessary. Multi-belt drives shall only be replaced with matched sets. 16. Check rigid couplings for alignment on direct drives, and for tightness of assembly. Check flexible couplings for alignment and wear. 17. Before heating season (chilled water coils only): Drain cooling coils; blow down to remove moisture; refill with antifreeze and water solution; drain. 18. Check freezestat for proper temperature setting and operation. 19. Vacuum interior of unit. 20. Blow out motor air vents with compressed air only. 21. Check filter doors and access doors for proper gasketing and air leaks. Correct as necessary. 22. Lubricate fan shaft bearings while unit is running. Add grease slowly until slight bleeding is noted from the seals. Do not over lubricate. Remove old or excess lubricant. 23. Ensure that drains are clear and running. If applicable, test and clean condensate pump. 24. Clean up work area. The maintenance contractor may propose a predictive maintenance program that would replace the above check points for preventative maintenance. The proposed predictive maintenance program would need to be approved by the contracting officer’s representative (COR) and included in the Building Operating Plan. Check Points for Equipment Functional Testing (Air Handlers controlled by Direct Digital Controls (DDC) Only) 1. Review sequence of operation for air handler. 2. Use government approved persistence commissioning tool (for example PACRAT) to verify that the air handler is operating according to the correct sequences of operation. Use approved persistence commissioning tool to also ensure that control loops are stable and sensors are reading correctly. Document anomaly reports from the persistence commissioning tool. Document resolution of anomaly reports through work orders on the Computerized Maintenance Management System (CMMS). 3. If an approved persistence commissioning tool is NOT installed then:
  2. Set up trends on the building automation system for a minimum of two (2) weeks and trend the following points as appropriate for the subject air handler: supply air temperature, supply air enthalpy/ humidity, mixed air temperature, mixed air enthalpy/ humidity, return air temperature, return air enthalpy/ humidity, outside air temperature, outside air enthalpy/ humidity, supply air temperature setpoint, chilled water valve position, hot water valve position, economizer damper position, minimum outside air damper position, outside air CFM, supply air CFM, supply and return fan VFD speed, supply and return fan kW, supply air static pressure, supply air static pressure setpoint, other DDC points critical to air handler operation. ii. Review the trend data and check for stability of control loops. iii. Review the trend data and confirm air handler is operating according to all the correct sequences. Typical air handler sequences that should be verified include: start/stop, optimum start, economizer operation, supply air temperature setpoint, supply air temperature reset, static pressure re-set, demand controlled ventilation. iv. Document results of functional testing. Recommended Tools, Materials, and Equipment: 1. Tool Group A 2. Tachometer 3. Grease gun and oiler 4. Pressure washer 5. Vacuum. 6. Fin comb 7. Cleaning tools and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 8. Safety goggles. 9. Gloves. 10. Data processing software, for example Microsoft Office.

HVAC-AHU-03-01Y Frequency: Annually
Built Up Air Handler, Predictive Maintenance
Application This standard applies to built-up air handlers 5,000 CFM and greater with chilled water and/or hot water and/or steam coils that are fed from central plant(s). This standard includes some predictive maintenance Tasks and can be used as an alternative to the purely preventive maintenance standard. If the facility elects to use this standard as a substitute for the preventive maintenance air handler standard, then it is not necessary to follow the relevant air filter maintenance preventive standard. O&M contractors may propose changes to this standard. Such changes are subject to GSA approval. Proposed changes to standards must be submitted showing markups of changes for GSA approval. This standard may be used in lieu of standard HVAC-AHU-01-01Y. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule shutdown with operating personnel, as needed. 5. Preventive maintenance on associated equipment should be accomplished at this time. Children of this Piece of Equipment The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of the GSA standard for the detailed PM requirements for the children equipment. 1. Supply and Return Fan Motors, ELEC-MOT-01-01Y. 2. Variable Frequency Drives ELEC-VFD-01-01Y. 3. Filters HVAC-FLT-“XX”-03M (XX depending on the type of filter used) 4. Dampers HVAC-DMP-01-01Y. 5. Control Valves HVAC-VLV-01-01Y Check Points: 1. Check fan blades for dust buildup and clean if necessary. 2. Check fan blades and moving parts for cracks and excessive wear. 3. Check fan RPM against design specifications. 4. Check running motor amps on all three phases. Compare with manufacturer’s specifications. 5. Check belt, repair or replace as necessary. 6. Lubricate mechanical connections of dampers sparingly.

  1. Clean coils by brushing, blowing, vacuuming, or pressure washing. 8. Check coils for leaking, tightness of fittings. 9. Use fin comb to straighten coil fins. 10. If unit is a multi-zone air handler, then check each individual zone damper and associated controls. DDC: 11. Check to see that the operating control sensor activates the damper per design specifications. If not, recalibrate or replace the operating control sensor with the same temperature range sensor. 12. Check damper linkage for tightness or damage. Lightly oil moving parts using an approved lubricant. 13. Inspect damper(s) for free movement. Replace felt or other type seals as required. 14. Inspect connecting ductwork for air leaks. Correct leaks with approved duct tape or tighten connections, as required. 15. Tighten electrical connections to all servo-motor actuators, and test as applicable. 16. Check the heating or cooling valve (if present) for leakage around the stem or between the seat and disk. Repair or replace as needed. 17. Check velocity sensor tubing for cracks, tightness, or holes if applicable. Pneumatic: 18. Check damper linkage for tightness or damage. Lightly oil moving parts using an approved lubricant for pneumatic systems. 19. Inspect damper(s) for free movement. Replace felt or other type seals as required. 20. Inspect mixing box and connecting ductwork for air leaks. Correct leaks with approved duct tape or tighten connections, as required. 21. Inspect damper actuator(s) for tightness to mounting brackets. 22. Inspect damper actuator diaphragm for leaks by performing a pressure test of the diaphragm. 23. Check the damper actuator spring range. Replace spring, adjust pilot positioner, or add pilot positioner as needed. 24. If pneumatic actuator does not stroke properly, correct sticking valve stem or binding linkage. Replace or repair the diaphragm or actuator if necessary. 25. Check the heating or cooling valve for leakage around the stem or between the seat and disk. Repair or replace as needed. 26. Inspect the valve actuator for leaks by performing a pressure test of the diaphragm. Repair or replace as needed. 27. Check the spring range of the valve actuator. Replace spring, adjust pilot positioner or add pilot positioner as needed. 28. Inspect for air leaks around actuator and in the air line between controller and pneumatic actuator.
  2. Inspect operating control thermostat and/or pressure sensor for proper location and check main and branch air lines at thermostat for crimps, breaks, etc. Repair or replace if needed. 30. Check all inline filters for oil and/or moisture. Replace as needed. 31. Check all installed pressure gages for proper range and operability as applicable. Replace if needed. 32. Perform a spring range check for all remaining end devices. 33. Calibrate the operating control thermostat. Replace if it is defective with the same type action (direct or reverse action) and temperature range. 34. Check to see that the operating control thermostat activates the damper per design specifications. If not, recalibrate the operating control thermostat.
  3. Flush and clean condensate pans and drains, remove all rust prepare metal and paint. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. Hose down coils and drain pans and wash with an appropriate EPA approved solution approved solution. Treat condensate pans with an EPA approved biocide. If applicable, test and clean condensate pumps. 36. Check rigid couplings for alignment on direct drives, and for tightness of assembly. Check flexible couplings for alignment and wear. 37. Before heating season (chilled water coils only): Drain cooling coils; blow down to remove moisture; refill with antifreeze and water solution; drain. 38. Check freezestat for proper temperature setting and operation. 39. Vacuum interior of unit. 40. Blow out motor air vents with compressed air only. 41. Check filter doors and access doors for proper gasketing and air leaks. Correct as necessary. 42. Lubricate fan shaft bearings while unit is running. Add grease slowly until slight bleeding is noted from the seals. Do not over lubricate. Remove old or excess lubricant. 43. Ensure that drains are clear and running. 44. Clean up work area. Predictive Maintenance Checkpoints Vibration Analysis on Fans 1. For each fan take baseline readings on all permanently installed vibration transducers. 2. Monitor permanently installed vibration transducers with BAS. 3. An on-staff or contracted Vibration Analysis Technician using specialized software will need to determine criteria for unacceptable vibration signals. 4. Set up maintenance alarms or signal CMMS to issue a work order when transducer output exceeds acceptable levels based on baseline readings. 5. Take corrective action by:
  4. Having a full set of vibration readings taken by a qualified on-staff or contracted vibration analyst. b. Following the analyst’s diagnostic recommendations.
    Filters 1. Differential pressure sensors should be installed across each filter bank and should report values to Building Automation System. 2. Determine the setpoint for each differential pressure sensor that should trigger a filter change. Some of the factors that should be considered include: a. Manufacturer’s recommendations for filter changes b. Operational issues (indoor air quality, number of service calls, etc.) c. Cost of filter replacement d. Cost of increased energy usage due to filter loading 3. Enter the determined operational set point into the system as a maintenance alarm or signal to the CMMS system to generate a work order. Check Points for Equipment Functional Testing (Air Handlers controlled by Direct Digital Controls (DDC) Only) 1. Review sequence of operation for air handler. 2. Use government approved persistence commissioning tool (for example PACRAT) to verify that the air handler is operating according to the correct sequences of operation. Use approved persistence commissioning tool to also ensure that control loops are stable and sensors are reading correctly. Document anomaly reports from the persistence commissioning tool. Document resolution of anomaly reports through work orders on the Computerized Maintenance Management System (CMMS). 3. If an approved persistence commissioning tool is NOT installed then: a. Set up trends on the building automation system for a minimum of two (2) weeks and trend the following points as appropriate for the subject air handler: supply air temperature, supply air enthalpy/ humidity, mixed air temperature, mixed air enthalpy/ humidity, return air temperature, return air enthalpy/ humidity, outside air temperature, outside air enthalpy/ humidity, supply air temperature setpoint, chilled water valve position, hot water valve position, economizer damper position, minimum outside air damper position, outside air CFM, supply air CFM, supply and return fan VFD speed, supply and return fan kW, supply air static pressure, supply air static pressure setpoint, other DDC points critical to air handler operation. b. Review the trend data and check for stability of control loops. c. Review the trend data and confirm air handler is operating according to all the correct sequences. Typical air handler sequences that should be verified include: start/stop, optimum start, economizer operation, supply air temperature setpoint, supply air temperature reset, static pressure re-set, demand controlled ventilation.
  5. Document results of functional testing. Recommended Tools, Materials, and Equipment: 1. Tool Group A 2. Tachometer 3. Grease gun and oiler 4. Pressure washer 5. Vacuum. 6. Fin comb 7. Cleaning tools and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 8. Safety goggles. 9. Gloves. 10. Data processing software, for example Microsoft Office.

HVAC-AHU-04-01Y Frequency: Annually
Packaged Air Handler
Application This standard applies to packaged air handlers with A/C compressor(s) and/or a natural gas fired heating section. This includes A/C units with gas heat, A/C units only, Heat Pumps with air cooled condensers or any other type of packaged air handler with air conditioning. These units include all the components in one factory assembled unit, although may be comprised of different sections. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule shutdown with operating personnel, as needed. 5. Preventive maintenance on associated equipment should be accomplished at this time. 6. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 7. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 8. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 9. Recover, recycle, or reclaim the refrigerant as appropriate. 10. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal. 11. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 12. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 13. Closely follow all safety procedures described in the 14. Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. Check Points: 1. Check fan blades for dust buildup and clean if necessary. 2. Check fan blades and moving parts for cracks and excessive wear. 3. Check fan RPM against design specifications. 4. Check running motor amperatures on all three phases. Compare with manufacturer’s specifications.

  1. Check dampers for dirt accumulations, clean as necessary. Check belt, repair or replace as necessary. 6. Check damper actuators and linkage for proper operation. Adjust linkage on dampers if out of alignment. 7. Lubricate mechanical connections of dampers sparingly. 8. If unit is a multi-zone air handler, then check each individual zone damper and associated controls.

Condenser

  1. Remove debris from air screen and clean underneath unit. 10. Pressure wash coil with proper cleaning solution. 11. Straighten fin tubes with fin comb. 12. Check electrical wiring and tighten loose connections. Check fused disconnect switches for condition and operation. 13. Check mounting for tightness. 14. Check for corrosion. Clean and treat with inhibitor as needed. 15. Check fan or blower for bent or damaged blades and imbalance. 16. Lubricate shaft and motor bearings on fans and remove old or excess lubricant. 17. Inspect pulleys, belts, couplings, etc.; adjust tension and tighten mountings as necessary. Change badly worn belts. Multi-belt drives should be replaced with matched sets. 18. Condenser tubes should be inspected and cleaned. Condenser tubes from open tower systems may have contamination or hard scale. Excessive corrosion, scaling, erosion and algae typically indicate improper or lack of an adequate water treatment program. Consult water treatment standard for proper procedures. 19. Clean coils by brushing, blowing, vacuuming, or pressure washing.

Evaporator

  1. Evaporator tubes should be inspected and cleaned of scale. Inspect and clean temperature sensors and flow switches. 21. Inspect plumbing, valves and flanges for leaks and correct. 22. Check coils for leaking, tightness of fittings: a. Check for refrigerant leaks using a halogen detector or similar testing device. If leaks are not able to be stopped or corrected, report leak status to supervisor. Consult the Material Safety Data Sheets (MSDS) for disposal requirements. Reclaimed and recycled CFCs are exempt from hazardous waste regulations (Consult 40 CFR Part 261). b. Check refrigerant levels and recharge if needed.
  2. Use fin comb to straighten coil fins. 24. Remove debris from air screen and clean underneath unit. 25. Inspect gaskets. Look for leaks between unit and structure, caulk as necessary. 26. Clean condenser, cooling coil fins, and fans. 27. Remove dirt or dust from all interior parts. 28. Replace filter. 29. Inspect and adjust damper. 30. Lubricate motor and fan bearings. 31. Check fan RPM to design specifications. 32. Check bearing collar set screws on fan shaft to make sure they are tight. 33. Check dampers for dirt accumulations. Check felt. Repair or replace as necessary. 34. Check damper motors and linkage for proper operation. 35. Lubricate mechanical connections of dampers sparingly.

Compressor(s)

  1. Lubricate drive coupling. 37. Lubricate motor bearings (non-hermetic). 38. Check and correct alignment of drive couplings. 39. Inspect evaporator tubes for scale. Clean if required. Leak test tubes using a halogen leak detector or suitable substitute. 40. Add refrigerant per manufacturer’s instructions if needed. 41. Check compressor oil level. 42. Run machine; check action of controls, relays, switches, etc. to see that: a. Compressor(s) run at proper settings. a. Check compressor oil level. b. Run machine, check action of controls, relays, switches, etc., to see that: c. compressor(s) run at proper settings. d. reheat coils activate properly. e. crankcase heater is operating properly. Gas and/or oil fired (if equipped). i. Check burner for flashback and tight shutoff of fuel. ii. Check operation of controls. Clean and adjust if necessary. iii. Clean burner, chamber, thermocouple and control. (Use a high suction vacuum and/or brush.) Check combustion chamber for cracks, holes, or other defects. iv. Adjust pilot or electric ignition device. v. Inspect vent and damper operation. vi. Operate unit and adjust burner.

vii. Check operation of safety pilot, gas shutoff valve, and other burner safety devices. viii. Check temperature differential and controls. ix. Check frame of unit with ohmmeter for proper electric ground. x. Replace covers (if any) and clean area. f. Electrical (if equipped). i. Visually inspect for broken parts, contact arcing or any evidence of overheating. Inspect all wiring for deterioration. ii. Check name plate for current rating and controller manufacturer’s recommended heater size. (Heater size shall not be changed without the regional design engineer’s approval.) iii. Check line and load connections and heater mounting screws for tightness. g. suction and discharge pressures are proper. h. discharge air temperature is set properly. 43. Check and adjust vibration eliminators. Replace as necessary. 44. Sample test the refrigerant and oil to verify compliance with the Air Conditioning and Refrigeration Institute standards. Based on the results, refrigerant may need to be replaced or recycled, and oil replaced. 45. Check and calibrate safety controls.

Gas Burner

  1. Check operation of all gas controls and valves including: manual gas shutoff; petal gas regulator; safety shutoff valve (solenoid); automatic gas valve; petal solenoid valve; butterfly gas valve, motor, and safety petal solenoid (if used.) 47. Check flue connections for tight joints and minimum resistance to air flow. (combustion chamber, flues, breaching, and chimney are clear before firing.) 48. Draft regulators require slightly negative pressure in the combustion chamber at maximum input. 49. On forced draft burners, gas manifold pressure requirements should correspond with modulating (butterfly) valve in full open position and stable at all other firing rates. 50. At high and low fire rates on burners equipped with OFF/LOW FIRE/HIGH FIRE control. 51. At single firing load point on boilers equipped with OFF/ON controls only. 52. Check burner for flashback and tight shutoff of fuel. 53. Check operation of automatic controls and combustion flame safeguards. Clean and adjust, if necessary.
  2. Operation and adjustments should conform with manufacturer’s instructions.
  3. Flush and clean condensate pans and drains, remove all rust prepare metal and paint. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. Hose down coils and drain pans and wash with an appropriate EPA approved solution approved solution. Treat condensate pans with an EPA approved biocide. If applicable, test and clean condensate pumps. 56. Check rigid couplings for alignment on direct drives, and for tightness of assembly. Check flexible couplings for alignment and wear. 57. Vacuum interior of unit. 58. Blow out motor air vents with compressed air only. 59. Check filter doors and access doors for proper gasketing and air leaks. Correct as necessary. 60. Lubricate fan shaft bearings while unit is running. Add grease slowly until slight bleeding is noted from the seals. Do not over lubricate. Remove old or excess lubricant. 61. Ensure that drains are clear and running. 62. Clean up work area.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A 2. Tachometer 3. Grease gun and oiler 4. Pressure washer 5. Vacuum. 6. Fin comb 7. Cleaning tools and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 8. Safety goggles. 9. Gloves. 10. Data processing software, for example Microsoft Office.

HVAC-AHU-05-01Y Frequency: Annually
Packaged Air Handler, Predictive Maintenance
Application

This standard applies to packaged air handlers with compressors and/or gas burners. This standard includes some predictive maintenance Tasks and can be used as an alternative to the purely preventive maintenance standard. If the facility elects to use this standard as a substitute for the preventive maintenance air handler standard, then it is not necessary to follow the relevant air filter maintenance preventive standard.

O&M contractors may propose changes to this standard. Such changes are subject to GSA approval. Proposed changes to standards must be submitted showing markups of changes for GSA approval.

This standard may be used in lieu of standard HVAC-AHU-04-01Y.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule shutdown with operating personnel, as needed. 5. Preventive maintenance on associated equipment should be accomplished at this time.

Check Points:

  1. Check fan blades for dust buildup and clean if necessary. 2. Check fan blades and moving parts for cracks and excessive wear. 3. Check fan RPM against design specifications. 4. Check running motor amperatures on all three phases. Compare with manufacturer’s specifications. 5. Check dampers for dirt accumulations, clean as necessary. Check belt, repair or replace as necessary. 6. Check damper actuators and linkage for proper operation. Adjust linkage on dampers if out of alignment. 7. Lubricate mechanical connections of dampers sparingly.
  2. If unit is a multi-zone air handler, then check each individual zone damper and associated controls.

Condenser

  1. Remove debris from air screen and clean underneath unit. 2. Pressure wash coil with proper cleaning solution. 3. Straighten fin tubes with fin comb. 4. Check electrical wiring and tighten loose connections. Check fused disconnect switches for condition and operation. 5. Check mounting for tightness. 6. Check for corrosion. Clean and treat with inhibitor as needed. 7. Check fan or blower for bent or damaged blades and imbalance. 8. Lubricate shaft and motor bearings on fans and remove old or excess lubricant. 9. Inspect pulleys, belts, couplings, etc.; adjust tension and tighten mountings as necessary. Change badly worn belts. Multi-belt drives should be replaced with matched sets. 10. Condenser tubes should be inspected and cleaned. Condenser tubes from open tower systems may have contamination or hard scale. Excessive corrosion, scaling, erosion and algae typically indicate improper or lack of an adequate water treatment program. Consult water treatment standard for proper procedures. 11. Clean coils by brushing, blowing, vacuuming, or pressure washing.

Evaporator

  1. Evaporator tubes should be inspected and cleaned of scale. Inspect and clean temperature sensors and flow switches. 2. Inspect plumbing, valves and flanges for leaks and correct.

Compressor(s)

  1. Lubricate drive coupling. 2. Lubricate motor bearings (non-hermetic). 3. Check and correct alignment of drive couplings. 4. Inspect evaporator tubes for scale. Clean if required. Leak test tubes using a halogen leak detector or suitable substitute. 5. Add refrigerant per manufacturer’s instructions if needed. 6. Check compressor oil level. 7. Run machine; check action of controls, relays, switches, etc. to see that: 8. Compressor(s) run at proper settings. 9. Suction and discharge pressures are proper. 10. Check and adjust vibration eliminators. Replace as necessary.
  2. Sample test the refrigerant and oil to verify compliance with the Air Conditioning and Refrigeration Institute standards. Based on the results, refrigerant may need to be replaced or recycled, and oil replaced. 12. Check and calibrate safety controls.

Gas Burner

  1. Check operation of all gas controls and valves including: manual gas shutoff; petal gas regulator; safety shutoff valve (solenoid); automatic gas valve; petal solenoid valve; butterfly gas valve, motor, and safety petal solenoid (if used.) 2. Check flue connections for tight joints and minimum resistance to air flow. (combustion chamber, flues, breaching, and chimney are clear before firing.) 3. Draft regulators require slightly negative pressure in the combustion chamber at maximum input. 4. On forced draft burners, gas manifold pressure requirements should correspond with modulating (butterfly) valve in full open position and stable at all other firing rates. 5. At high and low fire rates on burners equipped with OFF/LOW FIRE/HIGH FIRE control. 6. At single firing load point on boilers equipped with OFF/ON controls only. 7. Check burner for flashback and tight shutoff of fuel. 8. Check operation of automatic controls and combustion flame safeguards. Clean and adjust, if necessary. 9. Operation and adjustments should conform with manufacturer’s instructions. 10. Flush and clean condensate pans and drains, remove all rust prepare metal and paint. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. Hose down coils and drain pans and wash with an appropriate EPA approved solution approved solution. Treat condensate pans with an EPA approved biocide. If applicable, test and clean condensate pumps. 11. Check rigid couplings for alignment on direct drives, and for tightness of assembly. Check flexible couplings for alignment and wear. 12. Vacuum interior of unit. 13. Blow out motor air vents with compressed air only. 14. Check filter doors and access doors for proper gasketing and air leaks. Correct as necessary. 15. Lubricate fan shaft bearings while unit is running. Add grease slowly until slight bleeding is noted from the seals. Do not over lubricate. Remove old or excess lubricant. 16. Ensure that drains are clear and running. 17. Clean up work area.

 

Recommended Tools, Materials, and Equipment:

  1. Tool Group A 2. Tachometer 3. Grease gun and oiler 4. Pressure washer 5. Vacuum. 6. Fin comb 7. Cleaning tools and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 8. Safety goggles. 9. Gloves. 10. Data processing software, for example Microsoft Office.

HVAC-AHU-06-01Y Frequency: Annually
Air Washer or Wet Coil System
Application: This standard card applies to those installations that utilize an air washer or a wet coil system on their air handler units. Air washers consist of a spray chamber, without coils, into which chilled water is sprayed for the purpose of cooling the air flowing through it. In a wet coil system, water is sprayed onto a chilled water coil for the purpose of providing better heat transfer between the coil and air. The air handler will be serviced using the standard for Air Handlers and the air washer or wet coil system should be scheduled for accomplishment at the same time. Direct or Indirect Evaporative Cooling Units shall be serviced under their specific Maintenance Standards. Special Instructions: 1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule outage with operating personnel. 5. Open, lock, and tag out electric circuits serving motors for the air handler and spray pump. 6. Preventive maintenance on associated equipment should be accomplished at this time. 7. Secure and tag all water valves supplying the pan or sump. Check Points: 1. Examine and wire brush all structural elements including doors, chamber, piping, supports, pans, sumps, and framing. 2. Clean tank or sump and examine for leaks. 3. Treat with rust inhibitor and paint as required. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. 4. Clean suction screens. 5. Remove nozzles and clean. Replace as required. 6. Check piping for blockage or buildup. Clean or replace as required. 7. Check operation of float valve, mixing or automatic control valves and thermometers. 8. Check lights for water seal and operation. Replace as necessary. 9. Pumps and motors less than 1 HP will be serviced as part of this PM. Pumps and motors 1 HP and larger will be serviced using PM standard cards HVACPMP-01 and ELEC-MOT-01 respectively. a. Clean and lubricate pump. Check and replace packing if applicable. b. Blow out or vacuum motor windings and lubricate if required.

  1. Remove tags and lockout from circuits for spray pump only. 11. Check with operating personnel before restoring circuits to the air handlers, to be certain personnel are not working on the unit.

Note: Pans and sumps should remain dry during winter operation. Tags should be removed from supply valves at the completion of this work, but the valves should be opened by operating personnel only when the unit is to be filled and placed in service.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Cleaning tools and materials, vacuum, grease gun and oil. 3. Rust inhibitor and paint. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Gasket material 5. Goggles

HVAC-AHU-07-01Y Frequency: Annually

Hot Air Furnace
Application

Hot air furnaces are used primarily to heat, but can be used with refrigerant coils to cool or as a backup for heat pump applications using multi-speed fan motors. These units can be horizontal or vertical, heating only or heating/cooling.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.” 4. Schedule shutdown with operating personnel. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Coordinate other related preventive maintenance items, such as, motors, burners, fuel tank, humidifier, or other equipment.

Check Points:

  1. Remove furnace ends and access panels if applicable. 2. Check the fire box liner or refractory for cracks and leaks. 3. Check smoke stack for obstructions, leaks, etc. 4. Clean bottom of smoke stack (breaching). 5. Clean all fans and motors. 6. Check operation of controls and safeties. 7. Lubricate as required. 8. Check and clean plenum (clean cooling coils and check for leaks, if equipped.) 9. Replace furnace and access panels ends if removed. 10. Check all motors, belts, pulleys, shafts, etc. for alignment. 11. Treat all rusted areas with rust inhibitor and touch up paint. 12. Remove lock outs and tags. Restore fuel and power supply.

Recommended Tools and Equipment:

  1. Tool Group A and B 2. Vacuum cleaner and attachments
  2. Rust inhibitor, paint, brushes. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). Consult the MSDS to ensure that the paint lead level is 0.06% or less. 4. Cleaning and patching materials. Consult the MSDS for hazardous ingredients and proper PPE. 5. Respirator, goggles and gloves. 6. Flue and stack cleaning brushes.

HVAC-AHU-08-01Y Frequency: Annually
AHU UV Treatment System
Application

Ultra-Violet (UV) Light systems are installed in the central air system where it suppresses mold grown on the cooling coils and surrounding areas to improve indoor air quality.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions. 3. UV lights shall be replaced at a maximum of 10,000 run time or based on measuring intensity. Replace if below manufacturers recommended limit. 4. Avoid exposure to UV light, there is potential for eye or skin damage. 5. Schedule shutdown with operating personnel. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Coordinate other related preventive maintenance items, such as, motors, burners, fuel tank, humidifier, or other equipment.

Check Points:

  1. Check for evidence of loose connections. 2. Replace all lamps if exceeding 10,000 hours use or below manufacturers minimum intensity level. Note that lamps may not appear to be degraded, but still require replacement.

Recommended Tools and Equipment:

  1. Tool Group A and B 2. Manufacturer’s recommended PPE for UV light

HVAC-AIR-01-06M Frequency: Semi-annually
Air Dryer, Refrigerated or Regenerative Desiccant Type Application:

This standard card applies to refrigerated or regenerative desiccant type air dryers with a capacity of 10 SCFM or greater. Those units with a capacity of less than 10 SCFM will be maintained in conjunction with the air compressor that they are associated with.

Special Instructions:

  1. Schedule this maintenance in conjunction with the maintenance on the associated air compressor. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 5. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 6. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 7. Recover, recycle, or reclaim the refrigerant as appropriate. 8. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the item. 9. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 10. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 11. For refrigerant type units, closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers.

Check Points:

  1. Lubricate valves and replace packing, if necessary. 2. Check dryer operating cycle. 3. Inspect and clean heat exchanger. 4. Check outlet dew point. 5. Clean and lubricate blower.
  2. Check automatic blow down devices. 7. Inspect and replace or reinstall inlet filters. 8. Refrigerated Type: a. Check traps. b. Check refrigerant level and moisture content. If low level or moisture is indicated, check for refrigerant leaks using a halogen leak detector or similar device. If leaks are not able to be stopped or corrected, report leak status to supervisor. c. Clean and lubricate condenser fan motor. 9. Desiccant Type: a. Replace filter cartridges, both prefilter and afterfilter. b. Check the inlet flow pressure, temperature and purge rate. c. Check the desiccant and replace if necessary. d. Inspect and clean solenoids, purge valves, and strainers.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A 2. Cleaning equipment, lubricants, approved refrigerants if applicable, and materials. Consult the Material Safety Data Sheets (MSDS) and container labels for hazardous ingredients and proper personal protective equipment (PPE). 3. Filter cartridges (for desiccant type dryer) 4. Gasket and packing material 5. Fin comb 6. Self sealing quick disconnect refrigerant hose fittings 7. Refrigerant recovery/recycle unit 8. EPA/DOT approved refrigerant storage tanks

HVAC-AIR-02-06M Frequency: Semi-annually
Air Compressor
Application:

This standard card applies to air compressors which supply system air or Building Automation control air to a building. Compressors may come equipped with air dryers or be installed in multiples. Significant energy can be lost through leaks in the system.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions and equipment history record. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Coordinate motor PM on an annual basis. 5. Tank should be inspected and tested by qualified inspector.

Check points:

  1. Perform normal tour checks and operations. Perform a visual inspection of the air system, noting any obvious leaks or portions of the air distribution network that may be subject to physical damage. 2. Change compressor crankcase oil. 3. Clean or replace air intake filter. 4. Check air dryer, automatic condensate drains, and air tank for proper operation. Clean condenser coils and cover grills. 5. Inspect oil separators for any sign of oil entering the system. 6. Inspect belt alignment and condition. Adjust or replace belts as required. Belts should be replaced in complete sets. 7. Check for corrosion and scale on water cooled units. 8. Clean heat exchange surfaces. 9. Check accuracy of gauges with calibrated test gauge. 10. On two stage compressor, check intermediate pressure. 11. Test relief valves, replace if leaking or the relief range is incorrect. Do not readjust safety relief valves in the field. 12. Check operation of compressor unloaders, repair or replace if not loading and unloading properly. 13. Check compressor suction and discharge valves for proper operation. Replace leaking valves.
  2. Check cut in and cut out of compressor pressure controller, readjust if necessary for proper air pressure requirements. Do not exceed ASME maximum tank pressure. 15. Check to make sure belt guard is installed prior to putting air compressor back in service. 16. No pressure vessel is to have its hand hole or man hole covers removed unless the vessel is at atmospheric pressure. 17. Ensure the pressure vessel inspection certificate is posted at machine. 18. Check if air compressor is running excessively or frequently cycling on and off (possible leaks). Log hour meter readings. 19. Perform an air leak check of the compressor and air distribution network in the equipment room, using an appropriate ultrasonic scanning device. Check hoses, hose connections, hose fittings, quick couplers, filters, regulators and lubricators. Correct or schedule repair as a work item. Tag location and date of leaks. Repair air leaks as soon as possible.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Belts 3. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Fin comb 5. Vacuum cleaner commercial type 6. Test gauge 7. Ultrasonic scanner with trisonic and contact scanning modes.

HVAC-AIR-03-06M Frequency: Semi-annually
Glycol Dry Cooler, Special Purpose
Application:

These units will be associated with special purpose or critical use packaged air conditioning units and refrigeration units, or would stand alone when utilized in free cooling.

Special Instructions:

  1. Schedule outage with operating personnel. 2. Obtain and review manufacturer’s instructions for starter to be tested (including the time current characteristic curve). 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.”

Check points:

  1. Dry Cooler Check Points: a. Remove debris from air screen and clean underneath unit. b. Pressure wash coil with coil cleaning solution. Check the Material Safety Data Sheets (MSDS) to ensure that the coil cleaner does not contain hydrofluoric acid or another irritating or hazardous compound. c. Straighten fin tubes with fin comb. d. Check electrical connections for tightness. e. Check mounting for tightness. f. Check for corrosion. Clean and treat with rust inhibitor and touch up paint as needed. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 2. Motors and Fans Check Points: a. Inspect pulleys, belts, couplings, etc.; adjust tension and tighten mountings as required. Change badly worn belts. Multi-belt drives should be replaced with matched sets. b. Perform required lubrication and remove old or excess lubricant. c. Clean motor with vacuum or low pressure air (less than 40 psi). Check for obstructions in motor cooling and air flow. 3. Expansion Tank Check Points: a. Examine exterior of tank, including fittings, manholes, and handholes for leaks, signs of corrosion. Repair/paint as necessary.
  2. Inspect structural supports and repair or replace damaged insulation or covering. c. Clean, test, and inspect sight glasses, valves, fittings, drains, and controls. d. Perform hydrostatic test if required. e. Check antifreeze level with hydrometer and add glycol base antifreeze as required for protection to minus 40 degrees Fahrenheit. 4. Electrical Controls Check Points: a. Visually inspect for broken parts, contact arcing, or any evidence of overheating. b. Check motor name plate for current rating and controller manufacturer’s recommended heater size. (Heater size shall not be changed without the Regional Design Engineer’s approval.) c. Check line and load connections and heater mounting screws for tightness.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic. 2. Pressure washer 3. Fin comb 4. Paint brush 5. Cleaning materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 6. Respirator 7. Safety goggles 8. Antifreeze – glycol base 9. Rust inhibitor. Consult the MSDS for hazardous ingredients and proper PPE. 10. Vacuum cleaner 11. Hydrometer (to check antifreeze level)

HVAC-AIR-04-06M Frequency: Semi-annually
After-Cooler/Separator

Application:

This standard card applies to the after-cooler/separator utilizing chilled water to condense moisture from large compressed air systems. These differ from mechanical/chemical type air dryers. Maintenance on this item should be performed with air compressors which supply the air through the after cooler.

Special Instructions:

  1. Schedule outage with operating personnel. 2. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 3. Provide an alternate source of air, if necessary. 4. Schedule Preventive Maintenance (PM) on associated equipment if possible. 5. Secure air and chilled water valves and tag them. 6. Wear appropriate protective equipment. 7. Use caution when disassembling. Check for and relieve pressure where found.

Check Points:

  1. Unbolt and remove supply and discharge water lines. 2. Unbolt supply and discharge air flanges and lower assembly. 3. Remove tube bundle assembly. 4. Check tube bundle for deterioration or ruptured tubes. 5. Clean exterior of the tube of all scale buildup. 6. Flush out the tube bundle shell. 7. Visually inspect the shell, flanges, piping, etc. for deterioration, cracks, etc. 8. Clean the trap orifice of all carbon and heavy grease buildup. 9. Reassemble the tube bundle in the shell using new gaskets and seals. 10. Replace assembly and separator in pipe line, using new gaskets. 11. Reconnect the supply and discharge water lines. 12. Remove tags, open air and water valves, restore power, and start air compressor. 13. Check operation of unit. Check the air and water inlet and outlet temperatures. 14. Check all connections for leaks. 15. Wire brush, treat with rusticide and primer rusted areas. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). Consult the Material Safety Data Sheet to ensure that the paint lead level is 0.06% or less.

Recommended Tools, Materials, and Equipment:

  1. Tool Group – C. 2. Ladder constructed according to OSHA/ANSI standards. Check ladder for defects. Do not use defective ladders. 3. Vacuum and Tube Cleaning Equipment 4. Gasket material and Seals 5. Lifting device (hoist, come-a-long, hydraulic lift etc.) 6. Length of garden hose. 7. Rusticide, primer and paint supplies. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE).

HVAC-BLR-01-01Y Frequency: Annually

Boiler, Natural Gas and Oil Fired
Application:

This standard card applies to both heating boilers and power boilers which use either natural gas or fuel oil for their fuel source. The standard card will identify which information applies to only one of these two boilers.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform boiler external inspection with internal inspection and annual preventive maintenance. 3. Review manufacturer’s instructions and ASME Boiler and Pressure Vessel Codes for boilers. 4. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Protection.” 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. All automatically and manually operated control devices provided for controlling operation and safety of the vessel, steam or water pressure, hot water temperature, combustion, and boiler water level shall be inspected under operating conditions. 7. All associated valves and piping, pressure and temperature indicating devices, metering and recording devices, and all boiler auxiliaries shall be inspected under operating conditions. 8. All combustion controls attached to the boiler regardless of the fuel being fired must be in good working order or the inspection certificate shall be withheld. 9. Close and tag all hand or motorized valves required to isolate the boiler. Chain and lock all valves that are closed for safety. These valves shall not be unlocked and reopened unless authorized by the originator of the work authorization. Enter this information in the boiler log and sign. 10. Wear appropriate respirator, goggles, and gloves while in contact with hazardous materials. Contact the Safety and Environmental Management Division/Branch if you have questions. 11. Lighting: Flashlight should be used in preference to an extension light. When a portable extension light is used in a confined space, it shall not be operated at more than 12 volts.
  2. Perform internal boiler inspection in accordance with requirements of American Society of Mechanical Engineers (ASME), Section VI, Recommended Rules for Care and Operation of Heating Boilers, and Section VII, Recommended Rules for Care of Power Boilers; and National Board Inspection Code ANSI/NB-23, A Manual for Boiler and Pressure Vessel Inspectors. 13. Inspection shall be performed by inspectors certified by the National Board of Boiler Pressure Vessel Inspectors. 14. Prepare boiler for internal inspection in the following manner: a. Fuel supply and ignition system shall be locked out. b. Water shall be drawn off and water side thoroughly washed out. c. Manhole and handhole plates, washout plugs, inspection plugs in water column connections shall be removed. d. The boiler shall be cooled and thoroughly cleaned. e. All grates of internally fired boilers shall be removed. f. Insulation and brickwork shall be removed as required to determine condition of boiler, headers, furnace, supports or other parts. g. Pressure gage(s) shall be removed and tested. h. Any leakage of steam or hot water into the boiler shall be prevented by disconnecting the pipe or valve at the most convenient point. i. Before opening the manhole and entering any part of the boiler, the required steam or water system stop valves must be closed, tagged, and padlocked. All drain valves or cocks located between the two valves shall be opened. 15. Inspector will not enter boiler until satisfied that necessary safety precautions and pre inspection preparations have been made. 16. If a boiler has not been properly prepared for an internal inspection, the inspector should decline to make the inspection. 17. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 18. Account for all tools, materials, and equipment before closing boiler.

Children of this Piece of Equipment

The following equipment items are the children of this piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment.

  1. Forced Draft Fan Blower motor. 2. Burner, Gas or Oil. 3. Boiler and Boiler Room Controls. 4. Heat Recovery Unit (i.e. feedwater economizer)
  2. Visually inspect for corrosion and/or soot accumulation. Note: the temperature differential across the economizer can be taken to determine combustion efficiency.

Check points:

External Inspection Procedure:

  1. Inspect overall cleanliness and accessibility of boiler and auxiliary equipment. Boiler fittings, valves and piping should be checked for compliance with ASME code and jurisdictional requirements. 2. Pressure Gages: Note the pressure reading indicated on pressure gage and compare it with another gage on the same system or with a standard test gage. 3. Water Level Gage Steam Boilers: a. Observe the blowdown of the water gage in its normal manner and the promptness of the return of water in the gage should be noted. b. During the test of the water level gage, water and steam connections should be blown separately to ensure both are clear. 4. Safety and Safety Relief Valves: a. Safety valves should be tested by allowing the pressure in the boiler to rise to the popping pressure, and subsequent fall, to check the actual popping pressure and blowdown. If this is not practical, the valve should be tested by the boiler operator for free operation by use of the lifting lever, provided the boiler pressure is 75% or more of the set pressure. b. Inspect valve discharge pipe to determine if discharge pipe is free and in accordance with ASME Code requirements. c. When inspections reveal that a safety valve is not operating properly, the boiler shall be taken out of service and the valve shall be replaced or repaired. 5. Low Water Fuel Cutoff or Feed Controls: Observe the test of these controls after the drain has been opened. Close the drain and observe the promptness of the return to normal such as the silencing of an alarm or stopping of a feed pump should be noted. The float linkage and connections should be examined for wear and the float chamber should be free of sludge or other accumulation. 6. Blowoff Piping Power Boilers: Observe blowdown of the boiler in normal manner, check for freedom of piping to expand and contract and ensure there is no excessive vibration. 7. Flame Failure Cutoff and Alarm.: Test flame failure shutdown and alarm on both pilot failure and main flame failure by securing fuel source. Ensure shutdown and alarm occurs in accordance manufacturers and ASME requirements. 8. Piping, Connections and Fittings:
  2. Inspect piping to ensure there is provision for expansion and adequate support. b. Piping and fittings should be examined for evidence of leakage and excessive vibration. Also closely examined to determine that they are properly rated for the service conditions to which they are subjected. 9. Scale, oil, etc.: a. Examine all surfaces of exposed metal on waterside of boiler for deposits caused by water treatment, scale, oil, or other substances. b. The smallest amount of oil is dangerous and immediate steps should be taken to clean affected surfaces and prevent further contamination, excess scale or other deposits should be removed by appropriate chemical or mechanical means. 10. Pressure controls (heating steam boilers): Verify that each automatically fired steam boiler is protected from over pressure by not less than two pressure operated controls one of which may be an operating control. 11. Determine if there is ample provision for expansion between the sections. 12. Check for excessive rust build-up between sections (cast iron type). 13. Examine all steam and water line to controls to determine that they are clear of scale and arranged to insure proper control operations. 14. Clean stems and shafts, and tighten packing nuts on valves and pumps. 15. Flush fuel oil strainer baskets and oil solenoid valve seats. 16. Dismantle low water fuel cut offs and water feeders to insure freedom from obstructions and proper functioning of the working parts. Always replace old gaskets before reassembling. 17. Inspect connecting lines to boiler for accumulations of mud, scale, etc., and clean as needed. 18. Examine all visible wiring for brittle or worn insulation, and make sure electrical contacts are clean, adequately tightened, and functioning properly. 19. On electrical type detection devices, replace vacuum tubes annually, and replace defective solid state devices. 20. Replace fusible plugs, if applicable.

Hydrostatic Test

  1. Hydrostatic Test: a. The test pressure should not exceed 1½ times the maximum allowable working pressure. b. The safety valve or valves should be removed or each disk shall be held down by means of a testing clamp. c. While at test pressure, time should be given to examine the complete pressure vessel for leaks prior releasing pressure. 2. Safety and Safety Relief Valves:
  2. Check valves for correct pressure setting and adequate discharge pipe supports. b. The safety or safety relief valve on a steam or hot water heating boiler should be tested manually once each month and pressure tested once each year. 3. Pressure Gages: a. When required, pressure gages shall be tested and calibrated. b. Location of steam pressure gage(s) should be noted to determine whether it is exposed to high temperature from an external source or to internal heat due to lack of protection by a proper siphon or trap.

Internal Inspection

  1. When the boiler has cooled to the ambient boiler room temperature, wash out mud legs, and flush boiler. 2. To protect the boiler from unnecessary stresses the boiler water temperature should be allowed to reach the boiler room temperature before draining the boiler. Drain boiler, tag valves and controls. NEVER attempt to remove a manhole or handhole cover without first properly venting the water or steam side of a boiler to the atmosphere. Prior to opening or entering a boiler it must be at atmospheric pressure. 3. Inspect the boiler tube surfaces for rust and soot buildup. Rust is an indicator of condensation. The tubes should be brushed. Vacuum debris from all surfaces. 4. Clean breaching, ducts, fireboxes, or main fire tube, and flue passages. Vacuum debris from all surfaces. 5. Check and replace worn or damaged insulation. Repair the damage and remove the debris. If the insulation contains asbestos, refer to Appendix G for the Universal Waste Guide. 6. Check refractory and brick work; if damaged notify supervisor and enter this data in boiler log. 7. Stays and stay bolts: a. Examine stays to determine whether or not they are in even tension. All fastened ends should be examined to determine whether cracks exist where stays are punched or drilled for rivets or bolts. b. Test firebox stay bolts by tapping one end of each bolt with a hammer and, where practical, a hammer or other heavy tool should be held on the opposite end to make the test more effective. An unbroken bolt should give a ringing sound while a broken bolt will give a hollow sound. Replace broken stay bolts. 8. Examine manholes, reinforcing plates and nozzles or other connections flange or screwed into the boiler for evidence of defects both internally and externally. If possible, observation should be made from the inside of the boiler as to whether connections are properly made to the boiler. Examine all openings

leading to external attachments, such as water column connections, low water fuel cutoff devices, openings in dry pipes and openings to safety valves to ensure they are free from obstruction. 9. Fire Surfaces: a. Examine for bulging and blistering: b. Inspect all plate or tube surfaces exposed to the fire also check whether any part of the boiler has become deformed by bulging and blistering. 10. Cracks: a. Examine vulnerable areas such as ligaments between the holes on watertube boiler drums, between tube holes on tube sheet of firetube boilers, at any flange where repeated flexing of the plate occurs during operation and around welded pipe and tube connections. b. Lap joint boilers are subject to cracking where plates lap in the longitudinal seam. If there is any evidence of leakage or other distress at this point, the inspector should thoroughly examine the area to determine whether cracks exist in seams. REPAIR OF LAP JOINT CRACKS ON LONGITUDINAL SEAMS IS PROHIBITED. 11. Corrosion: a. Inspect for corrosion. b. When active corrosion is found, provide advice to correct as necessary. 12. Grooving: a. Inspect for grooving. Examine as construction permits all flange surfaces, particularly the flanges of unstayed heads. b. Provide corrective advice for any defects found. 13. Firetubes: Examine closely for reduction in thickness near or at tube ends. 14. Watertubes: a. Inspect for corrosion, erosion, bulges, cracks, or any evidence of defective welds. b. Examine short tubes and nipples used to join drums and headers, there is a tendency for fuel and ash to lodge in these areas and corrosion is likely in the presence of moister. 15. Blowoff Piping: a. Inspect blowoff piping connections and fittings. b. Determine that blowout piping is properly secured and discharges at a safe point. 16. Brush all tubes clean of scale. 17. Brush plate surfaces clean, use vacuum cleaner. 18. Refill boiler with water and chemicals if boiler is to be put back in service or if wet-lay-ups are to be employed.

Check Points for Equipment Functional Testing

All safeties, interlocks, and alarms operate correctly in both automatic and manual operating modes. Verify proper sensor installation and calibration. The DDC control system relies on input from various sensors (such as temperature, pressure, and flow) in order to achieve the desired system operation. If sensors are not located correctly, or the measured value from any sensor to the control algorithm is incorrect, the system will not respond as intended.

  1. Actuation and Sequencing A. Verify that automatic isolation valves are installed and operate correctly, if applicable. (Automatic isolation valves are typically installed when multiple boilers are connected to a common supply header. Boilers with dedicated pumps generally do not have automatic isolation valves.) When an individual boiler is not operating, the isolation valve should be closed to prevent water from circulating through the unit. B. Verify proper boiler staging under normal operation, as well as under all failure and emergency operating modes, especially if multiple units are installed which are unequal in size. C. Verify that the boilers and primary/feed water pumps stage up and down per the sequence of operations under all operating modes. D. Verify that the time delay between boiler start/stop commands are per design. E. To remove residual heat from the boiler, the primary/feed water pump operation time delay, after the boiler is commanded OFF, is per design. 2. Setpoints and Reset Controls A. Verify that the system operates and maintains hot water supply temperature setpoint under all operating modes, including automatic, manual, and failure/emergency modes. B. Verify proper coordination between individual setpoints and reset strategies. C. Verify that the control algorithms generate the proper water temperature setpoint based on the reset parameters specifies in the sequence of operations. D. Verify that the reset parameters are optimized for the system. In addition, ensure the reset control strategy does not result in a return water temperature from the building loads, which can cause the flue gasses to condense in non-condensing boiler systems. E. Verify that the O2 trim controls, if applicable, operate to ensure that excess oxygen in flue gas is maintained at setpoint. If O2 trim controls are not installed, review flue gas report and verify the boiler was tuned at high-fire and at least one intermediate part-load operating point.
  2. Control Accuracy and Stability A. Verify that all control loops stabilize within a reasonable amount of time (typically 2 to 5 minutes) after a significant load change such as start-up or automatic/manual recovery from shut down. 4. Document results of functional testing.

Reporting:

  1. During all tests the actual operating and maintenance practices should be noted by the Inspector and a determination made as to their acceptability. 2. Record Review: Review the boiler log and records of maintenance and feed water treatment to insure that regular and adequate tests have been made on the boiler and controls. 3. Reports and Records: a. GSA Form 349, Inspection Report of Boiler, shall be prepared for each boiler when it is inspected. b. GSA Form 1034, Certification of Inspection, shall be issued when the boiler has been approved for operation. The original and one copy is required. The original is posted on or near the equipment and the copy is forwarded to the regional office, if required. 4. Conclusions: Any defects or deficiencies in condition, operating and maintenance practices of the boiler and auxiliary equipment should be discussed by the inspector with the owner or user at this time.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Scrapers, wire brush, cleaning materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Combustion testing equipment 4. Hydrostatic pump and safety valve gag 5. Respirator 6. Safety goggles 7. Safety signs 8. Suitable chain and locks for securing isolation valves. 9. Boiler chemicals as directed by a competent water treatment company. Consult the MSDS for hazardous ingredients and proper PPE. 10. Vacuum cleaner wet/dry type.

HVAC-BLR-02-01Y Frequency: Annually

Boiler, Electric
Application This standard applies to any boilers that use only electricity to heat the water for use. Generally, these units are smaller than the gas or oil fired boilers, unless there is no gas or oil available at the location.

Special Instructions:

  1. Perform boiler external inspection with internal inspection and annual preventive maintenance. 2. Review manufacturer’s instructions and ASME Boiler and Pressure Vessel Codes for boilers. 3. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Protection.” 4. Review boiler wiring diagram. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. All automatically and manually operated control devices provided for controlling operation and safety of the vessel, steam or water pressure, hot water temperature, combustion, and boiler water level shall be inspected under operating conditions. 7. All associated valves and piping, pressure and temperature indicating devices, metering and recording devices, and all boiler auxiliaries shall be inspected under operating conditions. 8. Close and tag all hand or motorized valves required to isolate the boiler. Chain and lock all valves that are closed for safety. These valves shall not be unlocked and reopened unless authorized by the originator of the work authorization. Enter this information in the boiler log and sign. 9. Wear appropriate respirator, goggles, and gloves while in contact with hazardous materials. Contact the Safety and Environmental Management Division/Branch if you have questions. 10. Lighting: Flashlight should be used in preference to an extension light. When a portable extension light is used in a confined space, it shall not be operated at more than 12 volts. 11. Perform internal boiler inspection in accordance with requirements of American Society of Mechanical Engineers (ASME), Section VI, Recommended Rules for Care and Operation of Heating Boilers, and Section VII, Recommended Rules for Care of Power Boilers; and National Board Inspection Code ANSI/NB-23, A Manual for Boiler and Pressure Vessel Inspectors.
  2. Inspection shall be performed by inspectors certified by the National Board of Boiler Pressure Vessel Inspectors. 13. Prepare boiler for internal inspection in the following manner: 14. Fuel supply and ignition system shall be locked out. 15. Water shall be drawn off and water side thoroughly washed out. 16. Manhole and handhole plates, washout plugs, and inspection plugs in water column connections shall be removed. 17. The boiler shall be cooled and thoroughly cleaned. 18. All grates of internally fired boilers shall be removed. 19. Insulation and brickwork shall be removed as required to determine condition of boiler, headers, furnace, supports or other parts. 20. Pressure gage(s shall be removed and tested. 21. Any leakage of steam or hot water into the boiler shall be prevented by disconnecting the pipe or valve at the most convenient point. 22. Before opening the manhole and entering any part of the boiler, The required steam or water system stop valves must be closed, tagged, and padlocked. All drain valves or cocks located between the two valves shall be opened. 23. Inspector will not enter boiler until satisfied that necessary safety precautions and pre inspection preparations have been made. 24. If a boiler has not been properly prepared for an internal inspection, the inspector should decline to make the inspection. 25. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 26. Account for all tools, materials, and equipment before closing boiler.

Check points:

  1. Inspect overall cleanliness and accessibility of boiler and auxiliary equipment. Boiler fittings, valves and piping should be checked for compliance with ASME code and jurisdictional requirements. 2. Pressure Gages: Note the pressure reading indicated on pressure gage and compare it with another gage on the same system or with a standard test gage. 3. Clean boiler by: a. Placing boiler cleaning compound through appropriate opening in top of boiler. (Compound must not react against copper elements). b. Operate boiler according to instructions. c. Shut-off power by turning off pilot switch. d. Open bottom blow-down valve to full open to let sludge and scale blow out of boiler. e. Refill with water and close pilot switch.
  2. Check nameplate for KW rating, voltage and amperage. Check electrical supply voltage to verify it conforms to boiler requirements. 5. Safety and Safety Relief Valves: a. Safety valves should be tested by allowing the pressure in the boiler to rise to the popping pressure, and subsequent fall, to check the actual popping pressure and blowdown. If this is not practical, the valve should be tested by the boiler operator for free operation by use of the lifting lever, provided the boiler pressure is 75% or more of the set pressure. b. Inspect valve discharge pipe to determine if discharge pipe is free and in accordance with ASME Code requirements. c. When inspections reveal that a safety valve is not operating properly ,the boiler shall be taken out of service and the valve shall be replaced or repaired. 6. Clean stems and shafts, and tighten packing nuts on valves and pumps. 7. Inspect connecting lines to boiler for accumulations of mud, scale, etc., and clean as needed. 8. Examine all visible wiring for brittle or worn insulation, and make sure electrical contacts are clean, adequately tightened, and functioning properly. 9. On electrical type detection devices, replace vacuum tubes annually, and replace defective solid state devices. 10. Replace fusible plugs, if applicable.

Reporting:

  1. During all tests the actual operating and maintenance practices should be noted by the Inspector and a determination made as to their acceptability. 2. Record Review: Review the boiler log and records of maintenance and feed water treatment to insure that regular and adequate tests have been made on the boiler and controls. 3. Reports and Records: a. GSA Form 349, Inspection Report of Boiler, shall be prepared for each boiler when it is inspected. b. GSA Form 1034, Certification of Inspection, shall be issued when the boiler has been approved for operation. The original and one copy is required. The original is posted on or near the equipment and the copy is forwarded to the regional office, if required. 4. Conclusions: Any defects or deficiencies in condition, operating and maintenance practices of the boiler and auxiliary equipment should be discussed by the inspector with the owner or user at this time.

Recommended Tools, Materials, and Equipment: 1. Tool Group C.

  1. Scrapers, wire brush, cleaning materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Combustion testing equipment. 4. Hydrostatic pump and safety valve gag. 5. Respirator. 6. Safety goggles. 7. Safety signs. 8. Suitable chain and locks for securing isolation valves. 9. Boiler chemicals as directed by a competent water treatment company. Consult the MSDS for hazardous ingredients and proper PPE. 10. Vacuum cleaner wet/dry type.

 

HVAC-BLR-03-01Y Frequency: Annually
Burner, Gas
Application This standard applies to any boilers with burners that use Natural Gas as their fuel source. These can be either natural draft or forced draft type of boilers.

Special Instructions

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Verify that the annual inspections for the boiler have been satisfactorily performed. 4. As part of the combustion gas analysis, Nitrous Oxide (NOX) should be checked and compared with the local authority’s requirements. Many areas now have maximum standards for NOX to assist in reducing pollution. Depending on the age of the boiler and burner, specific requirements may exist. 5. Some jurisdictions may require 3rd party (independent) combustion and operational testing to verify boiler and burner operation.

Parent of this Piece of Equipment

Boiler, Gas or Oil Unit Heater

Check points:

  1. Check boiler room for ventilation in accordance with the American Gas Association (AGA) burner requirements. 2. Check operation of all gas controls and valves including: manual gas shutoff; petal gas regulator; safety shutoff valve (solenoid); automatic gas valve; petal solenoid valve; butterfly gas valve, motor, and linkage to air louver; safety petal solenoid (if used.) 3. Check flue connections for tight joints and minimum resistance to air flow. (combustion chamber, flues, breaching, and chimney are clear before firing.) 4. Draft regulators require slightly negative pressure in the combustion chamber at maximum input. 5. On forced draft burners, gas manifold pressure requirements should correspond with modulating (butterfly) valve in full open position and stable at all other firing rates.
  2. Take and record and record flue gas readings to determine boiler efficiency. Use manufacturer’s instructions if available. If not, use attached table as a guide for performance criteria. If efficiency is low, check baffling and passes for short circuiting, and boiler for air infiltration. Adjust dampers and controls to optimize efficiency. Run test at following load points. 7. 100%, 70%, and 40% of rated full load for boilers having metering controls or modulation capacity at these load points. 8. At high and low fire rates on boilers equipped with OFF/LOW FIRE/HIGH FIRE control. 9. At single firing load point on boilers equipped with OFF/ON controls only. 10. Check burner for flashback and tight shutoff of fuel. 11. Check operation of automatic controls and combustion flame safeguards. Clean and adjust, if necessary. 12. Operation and adjustments should conform with manufacturer’s instructions.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C. 2. Flue gas analyzer. 3. Clean wiping cloths.

HVAC-BLR-04-01Y Frequency: Annually
Burner, Oil
Application This standard applies to any boilers that use Fuel Oil as their fuel source. These can be either natural draft or forced draft type of boilers.

Special Instructions.

  1. Review manufacturer’s instructions. 2. Verify that the annual inspections for the boiler have been satisfactorily performed. 3. As part of the combustion gas analysis, Nitrous Oxide (NOX) should be checked and compared with the local authority’s requirements. Many areas now have maximum standards for NOX to assist in reducing pollution. Depending on the age of the boiler and burner, specific requirements may exist. 4. Some jurisdictions may require 3rd party (independent) combustion and operational testing to verify boiler and burner operation.

Parent of this Piece of Equipment

Boiler, Gas or Oil Unit Heater

Check points:

  1. Test and inspect burner (with or without firing) at rated pressure for leaks. 2. Perform timed trial for ignition on pilots and burners in accordance with instructions in the programmer timer. 3. Check automatic controls and combustion flame safeguards for normal operation. There should be no presence of oil discharge, ignition or flame. 4. Check pre-ignition purging capability of burner, combustion chamber, boiler passes, and breaching. Stack dampers should be fully open during purge and light off period. 5. Check delivery of fuel in relation to its response to the ignition system. Examine electrodes for carbon buildup, discoloration, distortion, and burning of parts, clean and adjust as necessary. 6. Check ignition transformer to supply dependable arc, adjust and regulate as required for clearance and air gap. 7. Clean and adjust draft regulator and air shutter on a natural draft burner to ensure excess air quantities are minimum for complete combustion. Test with flue gas analyzer. 8. On mechanical draft burners clean and check power driven fan blower.
  2. Check out forced draft fan, clean fan and fan housing, check bearings, pulleys and or couplings and adjust belt tension if required replace worn belts and lubricate pivot points on linkages as necessary. 10. Check and replace filters. Check and clean water separators, primary and secondary filters. 11. Clean, check operation, and adjust controls and safeties. 12. Burners designed to change firing rates automatically should be checked for adequate proportioning changes in fuel and air rates. 13. Check oil level sight glass to see that burner maintains proper oil level (within 1/3″) at rated output. 14. Check to ensure that power cannot feedback and energize ignition devices or feed valves after a control shuts off burner. 15. Clean or replace nozzles or cups, and check for tight shutoff of fuel. 16. Check stacks for smoke or haze and adjust burner accordingly. 17. Take and record flue gas readings to determine boiler efficiency. Use manufacturer’s instructions if available If not, use attached table as a guide for performance criteria. If efficiency is low, check baffling and passes for short circuiting, and boiler for air infiltration. Adjust dampers and controls to optimize efficiency. Tests should be run at the following load points: a. 100%, 70%, and 40% of rated full load for boilers having metering controls or modulation capacity at these load points. b. At the high and low fire rates on boilers equipped with OFF/LOW FIRE/HIGH FIRE control. c. At the single firing load point on boilers equipped with OFF/ON controls only.

Performance Criteria for Oil Burners

LIGHT OILS, Grade 2, Diesel Fuel, JP5, Navy Distillate Percent Load 40.0% 70.0% 100.0% Carbon Dioxide (CO2) 10.5% 11.0% 12.5% Carbon Monoxide (CO) 0 0 0 Oxygen (O2) 6.0% 5.0% 4.0% Excess Air (XA) 40.0% 30.0% 20.0% Smoke Scale No. 2 2 2 MEDIUM OILS, Grade 4, NFSO Percent Load 40.0% 70.0% 100.0% Carbon Dioxide (CO2) 11.0% 12.0% 13.0% Carbon Monoxide (CO) 0 0 0 Oxygen (O2) 6.0% 5.0% 4.0% Excess Air (XA) 40.0% 30.0% 20.0% Smoke Scale No. 3 3 3 HEAVY OIL, Grades 5 & 6 Percent Load 40.0% 70.0% 100.0% Carbon Dioxide (CO2) 12.0% 12.6% 13.6% Carbon Monoxide (CO) 0 0 0 Oxygen (O2) 6.0% 5.0% 4.0% Excess Air (XA) 40.0% 30.0% 20.0% Smoke Scale No. 0 0 0

Table continued below:

Performance Criteria for Oil Burners, continued

  1. Combustibles zero or negligible percent in flue gas. 2. Output (steam flow or water flow) where meters are available to correspond with combustion level not less than 100% of rated capacity at rated load. 3. Boiler section outlet flue gas temperature is not more than 30°F (17°C) higher than rated. When expected gas temperature is not known, manufacturer should be contacted for typical conditions for type boiler being tested. 4. Boiler section outlet flue gas temperature should not be more than 150°F to 180°F (84°C to 100°C) higher than corresponding saturated steam temperature for water tube boilers and 100°F to 125°F (56°C to 70°C) for firetube boilers. 5. Excess air within 5 percent of manufacturer’s expected performance level. 6. Feedwater temperature, burner atomizing pressure, fuel oil viscosity at the burner, draft loss and combustion appearance in accordance with manufacturer’s data or be close to industry standards.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Flue gas analyzer. 3. Varsol and rags. Use Varsol in well ventilated area! Varsol must be disposed of as a hazardous waste. Refer to Appendix G for the Universal Waste Guide. 4. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Clean wiping cloths.

HVAC-BLR-05-01Y Frequency: Annually
Boiler, Instrument Controls
Application:

This standard card applies to large boiler room operations where the boiler PM standards do not sufficiently cover the maintenance required for the boiler room controls. These boiler controls include such items as boiler masters, draft and oil controllers, level meters, flow transmitters and recorders, ratio transmitters and totalizers, recorders and indicators.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand manufacturer’s instructions before making any adjustments or calibrations. 3. Schedule work with operating personnel, as needed. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Review control wiring and piping diagrams. 6. Review and understand sequence of operation prior to testing. 7. Ensure appropriate site personnel are notified that alarms that may result from testing and to disregard them until testing is completed.

Check Points:

  1. Visually check equipment sensing lines, operating valves, and internal assembly for leaks. 2. Perform friction test. 3. Zero meter to scale, check pen(s) for zero indication, make necessary adjustments. 4. Simulate flow by use of check weights, provided water column, or other appropriate external simulation devices. 5. Check pen or indicator for proper chart or scale percentage at recommended check points; (or discretionary check points, if none are recommended) record actual indication; make minor adjustments as necessary. 6. Check control over full range. Set zero and full range stops as necessary. 7. Mark integrator or counter checks by simulating flow (usually 50% of full scale) and check number of counts over specific time period (minimum period of 30 minutes is recommended). Calculate correct number of counts for time period

used and make necessary minor adjustments. Re-check after any adjustments, ascertain that the integrator or counter does not count at zero. 8. Repeat step #6. 9. Open meter supply line to check for plugging. Put meter back in service. 10. Check electronic stations for proper electrical connections and pneumatic stations for any leaks by using a leak detector (soap solution). 11. Check operation of station panel switch and manual control for excessive friction and looseness of control knobs. 12. Check for correct supply pressure or voltage to the station. 13. Compare sender over it’s range of control with an accurate external measuring device such as a U-tube, pneumatic calibrator, or electronic calibrator (all other measurements in the control loop should be made with the same device). 14. Check all indicators by simulating pneumatic or electronic signals to the appropriate port of terminal for proper indication to the related gauge or indicator (in most cases, mathematical calculations will be necessary to determine the proper indication at each test point). 15. Ascertain that the automatic signal is not restricted when the station is activated. 16. Record and report all deficiencies. 17. Notify management that services are complete.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Calibration device for meter being checked. 3. Differential flow meter and indicator. 4. Soap solution for air leak test, accurate test gauges (check before use).

 

HVAC-BSB-01-02Y Frequency: 2-Year
Radiant Baseboards/Convectors (Steam, Hot Water, or Electric, per section) Application

This standard applies to baseboard radiator and convector heating units using hot water, steam, or electricity as the heating medium. These units are found in offices, entrance lobbies, vestibules, etc. They vary from simple finned tube baseboard units with no controls to zoned or individually controlled units. Valves can be on/off type or automatic temperature regulating valve.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 4. Review building plans for special instructions where removal of wall panels is necessary. 5. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Rope off or post signs at vestibules or entrances where work involves these areas.

Check Points:

  1. Check radiator valve for free turning and seating. Check packing. 2. Remove covers or wall panels. Note: Extreme care must be taken when removing marble or granite wall panels. These panels are extremely heavy and very fragile. 3. Check housing, braces, supports, hangers, and hardware for signs of deterioration or damage. 4. Check temperature or flow controls, shutoff valves, vents and traps for proper operation. 5. If radiator has automatic temperature regulating valve, remove valve cover and remove dirt by vacuuming. 6. For hot water radiators, check air bleed valve.
  2. Remove and inspect seat of steam trap. Clean out trap. Follow other steam trap procedures as listed in trap maintenance standards. 8. Wire brush and treat with rust inhibitor all rusted areas. 9. Check coils, piping, and fin material for damage, leaks or looseness. Straighten finned material as necessary. 10. Vacuum or blow out finned tube area and interior housing. 11. Clean and replace covers or wall panels and caulk wall panels as required. Clean work area.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Vacuum and/or portable air tank 3. Goggles, respiratory protection, and gloves 4. Rope and/or out of service signs 5. Rust inhibitor and appropriate paints. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less and for the proper personal protective equipment (PPE)

HVAC-CLR-01-03M Frequency: Quarterly
Central Chilled Water Package Unit:
Application:

This standard card applies to chilled water producing units that are self-contained, consisting of refrigeration compressors, condensers either air or water cooled, evaporator coils, refrigerant receivers, fan and motor, etc., contained in a common housing or assembly. This standard is for special purpose or critical use units.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 5. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 6. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 7. Recover, recycle, or reclaim the refrigerant as appropriate. 8. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the item. 9. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 10. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 11. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. 12. Remove access covers prior to accomplishing check points.

Check Points:

Condenser

  1. Remove debris from air screen and clean underneath unit. 2. Straighten fin tubes with fin comb.
  2. Check electrical wiring and tighten loose connections. Check fused disconnect switches for condition and operation. 4. Check mounting for tightness. 5. Check for corrosion. Clean and treat with inhibitor as needed. 6. Check fan or blower for bent or damaged blades and imbalance. 7. Lubricate shaft and motor bearings on fans and remove old or excess lubricant. 8. Inspect pulleys, belts, couplings, etc.; adjust tension and tighten mountings as necessary. Change badly worn belts. Multi-belt drives should be replaced with matched sets.

Evaporator

  1. Evaporator tubes should be inspected and cleaned of scale. Inspect and clean temperature sensors and flow switches. 2. Inspect plumbing, valves and flanges for leaks and correct.

Compressor(s)

  1. Lubricate drive coupling. 2. Lubricate motor bearings (non-hermetic). 3. Check and correct alignment of drive couplings. 4. Inspect evaporator tubes for scale. Clean if required. Leak test tubes using a halogen leak detector or suitable substitute. 5. Add refrigerant per manufacturer’s instructions if needed. 6. Check compressor oil level. 7. Run machine; check action of controls, relays, switches, etc. to see that: a. Compressor(s) run at proper settings. b. Suction and discharge pressures are proper. c. Outlet water temperature is set properly. 8. Check and adjust vibration eliminators. Replace as necessary. 9. Sample test the refrigerant and oil to verify compliance with the Air Conditioning and Refrigeration Institute standards. Based on the results, refrigerant may need to be replaced or recycled, and oil replaced. 10. Check and calibrate safety controls.

Controls

  1. Check operation of all relays, pilot valves, and pressure regulators. 2. Check resulting action of pressure sensing primary control elements such as diaphragms, bellows, inverted bells, and similar devices when activated by air, water, or similar pressure.

Motors

  1. Refer to the appropriate Maintenance Standard for Motors.

Recommended Tools, Materials, and Equipment:

  1. Tool Groups A and B 2. Pressure washer 3. Fin comb 4. Paint brushes 5. Cleaning materials and equipment. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 6. Respirator 7. Safety goggles. 8. Gloves. 9. Self sealing quick disconnect refrigerant hose fittings 10. Refrigerant recovery/recycle unit 11. EPA/DOT approved refrigerant storage tanks. 12. Approved refrigerant. 13. Electronic leak detector.

HVAC-CLR-01-01Y Frequency: Annually
Central Chilled Water Package Unit:
Application:

This standard card applies to chilled water producing units that are self-contained, consisting of refrigeration compressors, condensers either air or water cooled, evaporator coils, refrigerant receivers, fan and motor, etc., contained in a common housing or assembly.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 5. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 6. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 7. Recover, recycle, or reclaim the refrigerant as appropriate. 8. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the item. 9. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 10. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 11. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers. 12. Remove access covers prior to accomplishing check points.

Check Points:

Condenser

  1. Remove debris from air screen and clean underneath unit. 2. Pressure wash coil with proper cleaning solution.
  2. Straighten fin tubes with fin comb. 4. Check electrical wiring and tighten loose connections. Check fused disconnect switches for condition and operation. 5. Check mounting for tightness. 6. Check for corrosion. Clean and treat with inhibitor as needed. 7. Check fan or blower for bent or damaged blades and imbalance. 8. Lubricate shaft and motor bearings on fans and remove old or excess lubricant. 9. Inspect pulleys, belts, couplings, etc.; adjust tension and tighten mountings as necessary. Change badly worn belts. Multi-belt drives should be replaced with matched sets. 10. Condenser tubes should be inspected and cleaned. Condenser tubes from open tower systems may have contamination or hard scale. Excessive corrosion, scaling, erosion and algae typically indicate improper or lack of an adequate water treatment program. Consult water treatment standard for proper procedures.

Evaporator

  1. Evaporator tubes should be inspected and cleaned of scale. Inspect and clean temperature sensors and flow switches. 2. Inspect plumbing, valves and flanges for leaks and correct.

Compressor(s)

  1. Lubricate drive coupling. 2. Lubricate motor bearings (non-hermetic). 3. Check and correct alignment of drive couplings. 4. Inspect evaporator tubes for scale. Clean if required. Leak test tubes using a halogen leak detector or suitable substitute. 5. Add refrigerant per manufacturer’s instructions if needed. 6. Check compressor oil level. 7. Run machine; check action of controls, relays, switches, etc. to see that: a. Compressor(s) run at proper settings. b. Suction and discharge pressures are proper. c. Outlet water temperature is set properly. 8. Check and adjust vibration eliminators. Replace as necessary. 9. Sample test the refrigerant and oil to verify compliance with the Air Conditioning and Refrigeration Institute standards. Based on the results, refrigerant may need to be replaced or recycled, and oil replaced. 10. Check and calibrate safety controls.

Controls

 

  1. Check operation of all relays, pilot valves, and pressure regulators. 2. Check resulting action of pressure sensing primary control elements such as diaphragms, bellows, inverted bells, and similar devices when activated by air, water, or similar pressure.

Motors

  1. Refer to the appropriate Maintenance Standard for Motors.

Recommended Tools, Materials, and Equipment:

  1. Tool Groups A and B 2. Pressure washer 3. Fin comb 4. Paint brushes 5. Cleaning materials and equipment. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 6. Respirator 7. Safety goggles. 8. Gloves. 9. Self sealing quick disconnect refrigerant hose fittings 10. Refrigerant recovery/recycle unit 11. EPA/DOT approved refrigerant storage tanks. 12. Approved refrigerant. 13. Electronic leak detector.

HVAC-CLR-02-01Y Frequency: Annually
Rotary Screw & Scroll Chiller
Application:

This standard card applies to chilled water producing units, consisting of refrigeration rotary screw or scroll compressor(s), water cooled condenser tube bundle, evaporator tube bundle, control panel, etc.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Coordinate PM of refrigeration machine control panel with this PM activity. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 6. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 7. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 8. Recover, recycle, or reclaim the refrigerant as appropriate. 9. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the item. 10. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 11. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 12. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers.

Check Points:

  1. Pump down system. Remove a small sampling of refrigerant using appropriate refrigerant recovery/recycling equipment, in accordance with manufacturer’s instructions. Test the sample of refrigerant and oil to verify compliance with the Air Conditioning and Refrigeration Institute standards.
  2. Perform spectro-chemical analysis of compressor oil annually to determine bearing conditions and replace as necessary. 3. As oil testing indicates drain and replace oil in compressor oil reservoir including filters, strainers and traps. 4. Review the Material Data Safety Sheets (MSDS) for proper disposal of used oil. If appropriate, recycle oil at an authorized station. 5. Change oil filter or element and clean housing. 6. Inspect filter for metal particles which could indicate bearing wear. 7. Clean strainer and nozzles of eductor. 8. Clean all water strainers in the system. 9. Inspect relief valves and piping. Check for valve for corrosion or foreign material and replace valves. Valves are safety devices for equipment and personnel, DO NOT attempt to repair or recondition. Increase valve inspection frequency if equipment installed in corrosive environment. 10. Inspect evaporator and condenser tubes. a. Evaporator tubes should be inspected and cleaned of scale. Inspect and clean temperature sensors and flow switches. b. Condenser tubes should be inspected and cleaned. Condenser tubes from open tower systems may have contamination or hard scale. c. Excessive corrosion, scaling, erosion and algae typically indicate improper or lack of an adequate water treatment program. Consult water treatment standard for proper procedures. 11. Test for leaks per manufacturer’s instructions. Refrigerant leak detection can be conducted with an electronic halide leak detectors, ultrasonic leak detectors or a soap bubble solution will be used along with dry nitrogen to pressurize chiller. If leaks are not able to be stopped or corrected, report leak status to supervisor. 12. Pull vacuum on refrigeration machine in accordance with manufacturer’s instructions. Add refrigerant as required per specifications. 13. Megger compressor and oil pump motors and record readings. 14. Tighten all starter, control panel, motor terminals, overloads, and oil heater leads, etc. Loose connections can cause voltage spikes and overheating leading to malfunctions and failures. 15. Check all electrical contacts for wear, pitting, etc. 16. Check and calibrate overloads, record trip amps and trip times. 17. Check and calibrate safety controls. 18. Check external interlocks, flow switch, fans and pumps. 19. Check dash pot oil in main starter. 20. Check compressor(s) sequencing, if multiple stage system 21. Check pressure and temperature transducers against gage on both the oil, refrigerant and water side systems.
  3. Clean up the work area. Properly recycle or dispose of materials in accordance with environmental regulations.

Recommended Tools, Materials, and Equipment:

  1. Tool Groups A and C 2. Gloves 3. Safety goggles 4. Lubricants and gear box oil. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 5. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE. 6. Self sealing quick disconnect refrigerant hose fittings 7. Refrigerant recovery/recycle unit 8. EPA/DOT approved refrigerant storage tanks. 9. Tube cleaning pressure washer. 10. Paint and brushes as required. 11. Dry nitrogen gas, cylinder, and regulator. 12. Approved refrigerant. 13. Electronic leak detector. 14. Megger. 15. Variac (variable voltage transformer)

HVAC-CLR-03-01Y Frequency: Annually
Centrifugal Chiller
Application:

This standard card applies to chilled water producing units, consisting of refrigeration centrifugal compressor(s), water cooled condenser tube bundle, evaporator tube bundle, control panel, and associated equipment attached to the chiller.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Coordinate PM of refrigeration machine control panel in conjunction with this PM activity. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. The replacement filter-drier cores for the high efficiency purge unit absorb water vapor from the ambient air. They are shipped in sealed containers and are not to be opened until they can be installed and sealed in the purge tank. 5. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 6. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 7. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 8. Recover, recycle, or reclaim the refrigerant as appropriate. 9. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the item. 10. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 11. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 12. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers.

Check Points:

  1. Lubricate drive couplings.
  2. Check and correct alignment of drive couplings. 3. Lubricate motor bearings (non-hermetic) 4. Lightly lubricate vane control linkage bearings, ball joints and pivot points. DO NOT LUBRICATE the shaft of the vane operator. 5. Remove refrigerant in accordance with manufacturer’s instructions. Sample test the refrigerant and oil to verify compliance with the Air Conditioning and Refrigeration Institute standards. 6. Perform spectro-chemical analysis of compressor oil annually to determine bearing conditions and replace as necessary. 7. As oil testing indicates drain and replace oil in compressor oil reservoir including filters, strainers and traps. Manufacturers typically recommended that oil should be changed after the first year of operation and every five years thereafter. 8. Review the Material Data Safety Sheets (MSDS) for proper disposal of used oil. If appropriate, recycle oil at an authorized station. 9. Change oil filter, clean strainer. 10. Drain and replace oil in purge compressor. 11. Drain and replace oil in purge gearbox. 12. Change refrigerant filter/drier on cooling line to motor (hermetic). Check moisture indicator sight glass and if moisture present find source of water leak. 13. Clean all water strainers in the system. 14. Inspect relief valves and piping. Check for valve for corrosion or foreign material and replace valves. Valves are safety devices for equipment and personnel, DO NOT attempt to repair or recondition. Increase valve inspection frequency if equipment installed in corrosive environment. 15. Check pressure and temperature transducers against gage on both the oil, refrigerant and water side systems. 16. Inspect evaporator and condenser tubes. a. Evaporator tubes should be inspected and cleaned of scale. Inspect and clean temperature sensors and flow switches. b. Condenser tubes should be inspected and cleaned. Condenser tubes from open tower systems may have contamination or hard scale. c. Excessive corrosion, scaling, erosion and algae typically indicate improper or lack of an adequate water treatment program. Consult water treatment standard for proper procedures. 17. Test for leaks per manufacturer’s instructions. Refrigerant leak detection can be conducted with an electronic halide leak detectors, ultrasonic leak detectors or a soap bubble solution will be used along with dry nitrogen to pressurize chiller. If leaks are not able to be stopped or corrected, report leak status to supervisor. 18. Pull vacuum on refrigeration machine in accordance with manufacturer’s instructions. Add refrigerant as required per specifications.
  3. Megger compressor and oil pump motors and record readings. 20. Check dash pot oil in main starter. 21. Tighten all starter, control panel, motor terminals, overloads, and oil heater leads, etc. Loose connections can cause voltage spikes and overheating leading to malfunctions and failures. 22. Check all contacts for wear, pitting, etc. 23. Check and calibrate overloads, record trip amps and trip times. 24. Check and calibrate safety controls. 25. Clean up the work area. Properly recycle or dispose of materials in accordance with environmental regulations.

Recommended Tools, Materials, and Equipment:

  1. Tool Groups A and C 2. Gloves 3. Safety goggles 4. Lubricants and gear box oil. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 5. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE. 6. Self sealing quick disconnect refrigerant hose fittings 7. Refrigerant recovery/recycle unit 8. EPA/DOT approved refrigerant storage tanks. 9. Tube cleaning pressure washer. 10. Paint and brushes as required. 11. Dry nitrogen gas, cylinder, and regulator. 12. Approved refrigerant. 13. Electronic leak detector. 14. Megger. 15. Variac.

HVAC-CLR-04-01Y Frequency: Annually
Refrigeration Machine, Absorption Unit
Application:

This standard card applies to chilled water producing units using absorption refrigeration cycle. Components consist of absorber tube bundle, water cooled condenser tube bundle, evaporator tube bundle, system pumps, control panel, and other chiller equipment.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Coordinate PM of refrigeration machine control panel and refrigeration machine controls in conjunction with this PM activity. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 6. Recover, recycle, or reclaim the refrigerant as appropriate. 7. If disposal of the equipment item is required, follow regulations concerning removal of refrigerants and disposal of the item. 8. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 9. Lithium bromide is a corrosive solution. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers.

Check Points:

  1. Clean solution strainer(s). Clean unit pump motor cooling circuit in accordance with manufacturer’s instructions. 2. Check and clean all strainers and traps in steam or hot water supply, condensate return, and condensing water circuit. 3. Inspect relief valves and piping. Check for valve for corrosion or foreign material and replace valves. Valves are safety devices for equipment and personnel, DO NOT attempt to repair or recondition. Increase valve inspection frequency if equipment installed in corrosive environment. 4. Check pressure and temperature transducers against gage on all systems.
  2. Inspect and clean evaporator and condenser tubes. If steam and hot water fired also include absorber coil. a. Evaporator tubes should be inspected and cleaned of scale. Inspect and clean temperature sensors and flow switches. b. Condenser tubes should be inspected and cleaned. Condenser tubes from open tower systems may have contamination or hard scale. c. Excessive corrosion, scaling, erosion and algae typically indicate improper or lack of an adequate water treatment program. Consult water treatment standard for proper procedures. 6. For direct fired machines include inspection and cleaning of exhaust gas economizer. 7. For direct fired machines include gas burner PM per maintenance standard 8. Inspect and clean temperature sensors and flow switches. 9. Use oil-dry nitrogen under positive pressure to check for air leaks around valves, gaskets, seals, etc. 10. Units with external purge pump system: a. Check pulley alignment and V-belt extension. b. Clean purge drive belts with safety solvent. c. Change purge pump vacuum oil in accordance with manufacturer’s instructions. 11. Review the Material Safety Data Sheets (MSDS) for proper disposal of used oil. If appropriate, recycle oil at an authorized station. 12. Lubricate purge pump motor with machine oil. 13. Check pumps, motors, controls, and lubricate as required (evaporator pumps, solution pump). 14. Add octyl alcohol to working fluids per manufacturer’s charts and procedures. 15. Check and service system controls in accordance with manufacturer’s instructions. 16. Clean up the work area. Properly recycle or dispose of materials in accordance with environmental regulations.

Recommended Tools, Materials, and Equipment:

  1. Tool Groups A and C 2. Gloves 3. Safety goggles 4. Lubricants and gear box oil. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 5. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE.

HVAC-CLR-05-01Y Frequency: Annually
Chiller Control Panel
Application

This standard applies to control panels that are installed to protect and control the operation of central refrigeration machines (chillers). Typically the control panel is mounted on the chiller and controls chiller capacity, demand limit, temperatures, pressures as well as shut downs and safeties. The standard includes service to controllers, transmitters, sensors, relays, etc., associated with the central control panel.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand the manufacturer’s instructions before making any adjustments or calibrations. 3. Obtain “As Built” diagrams of the control and safety systems. 4. Schedule work with operating personnel, as needed. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Ensure appropriate site personnel are notified that alarms that may result from testing and to disregard them until testing is completed. 7. Replace defective control safeties found while performing preventive maintenance.

Check Points:

  1. Clean and calibrate all controlling instruments (temperature and pressure transducers, etc.) in accordance with manufacturer’s instructions and maintenance standard. 2. Check and clean all electrical contacts and pneumatic orifices. 3. Check pneumatic tubing for leaks or damage. Repair or replace as required. 4. Check electrical wiring insulation and connections. Tighten or replace if necessary. 5. Replace recorder charts for temperatures, kilowatt, etc., add ink (if applicable). 6. Check for bad indicator lights and gauges and replace as necessary. 7. Test all controllers and set at proper set points. 8. Check operating data and analyze for proper operation. Note unusual conditions such as compressor surge on maintenance log.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Pneumatic control gauge 3. Pressure gauge 4. Temperature gauge 5. Volt Ohm meter 6. Manufacturer’s control kit 7. Cleaning materials and equipment. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

HVAC-CLR-06-01M Frequency: Monthly
Refrigerant Monitor
Application

This standard applies to refrigerant monitors or detectors used to detect refrigerant leaks, primarily in chiller rooms. All commonly used refrigerants except ammonia are heavier than air at atmospheric pressure and, if released, will displace oxygen in the room posing suffocation hazards to personnel. Refrigerants coming into contact with flames or hot surfaces can break down to acidic or toxic compounds. For these and other reasons refrigeration machinery rooms may be required to have a refrigerant detector to activate an audible and visual alarm and enable ventilation systems.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand the manufacturer’s instructions before making any adjustments or calibrations. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Children of this Piece of Equipment

The following equipment items are the children of this parent piece of equipment and the PMs for these items should be completed at the same time. See other sections of this standard for the detailed PM requirements for the children equipment.

  1. Remote audible and visual alarms located inside and outside room entrances to warn people of leak.

Check Points:

  1. Wipe down outside of unit. 2. Replace air filter on air sample intake to unit. When clogged air flow will be restricted and a filter or flow fault will occur. Samples can be taken from air surrounding the unit or through a sample tube from a remote location. 3. Calibrate unit with gas canisters that have specific levels of refrigerant. Two calibrations are required, Zero to calibrate when no refrigerant present and SPAN to calibrate level of refrigerant in parts per million (ppm) when unit

should alarm. A ZERO scrubber (carbon filter) may also be used which will remove all impurities form air giving a zero reading. 4. The ppm level to alarm at varies based on refrigerant type; see International Machine code refrigerant classification. Name plate on unit should have levels listed. 5. Check that all relays sent to remote equipment close or open upon alarm. 6. Internal electronic components and sensors are typically not field serviceable and should be replaced either with new parts or sent to factory as applicable.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Cleaning Materials 3. Filters, as required

HVAC-CLR-07-01Y Frequency: Annually
Refrigerant Purge Units
Application

This standard applies to high efficiency purge units for centrifugal chillers. The units purge the refrigerant of non-condensable gasses such as air or sometimes nitrogen which is used to lay-up chiller and the high efficiency denotes that a minimum of refrigerant is lost when purging. There are different units depending on whether the chiller is low pressure (R-11, R-123) or high pressure (R-134a, R12, R-22). Units may be mounted on the chiller or remotely on a wall and connected with tubes.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Always purge chiller after it has been opened for servicing. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The replacement filter-drier cores absorb water vapor from ambient air, so they are shipped in sealed containers. Do not open them until the cores can be installed and sealed in the purge tank. 6. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 7. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 8. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 9. Recover, recycle, or reclaim the refrigerant as appropriate. 10. If appliance is disposed, follow regulations concerning removal of refrigerants and disposal of the appliance. 11. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 12. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 13. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and to all labels on refrigerant containers.

 

Parent of this Piece of Equipment

  1. Chiller or Refrigeration Systems

Check Points:

The service points listed below cover the basic sequences and items to check out for all units. However due to the many models available some of the functions described below may be automatic such as liquid water drain out or purge unit isolation and do not require many steps to complete.

Check out and Water Removal

Perform the purge system control check as described in the manufacturer’s instructions. If applicable, check purge run time logs for excessive run times. This may indicate leaks in the system.

  1. Purge tank service. a. Isolate the purge tank by closing the valves on the purge tank inlet and liquid return lines. b. With the purge condensing unit turned off, pressurize the purge tank through the purge tank drain valve to manufacturer’s specifications and test the solenoid valves to insure they seal properly. c. Check the purge tank sight glass to determine if there is water in the purge tank. 2. If the refrigerant level is visible in the sight glass but there is no water in the tank, then perform the following: a. Connect a refrigerant hose from the purge tank Schrader valve to an access valve on the evaporator. b. Open the vapor line and disconnect the refrigerant hose. c. Proceed with the service procedure. 3. If, on the other hand, there is a layer of water on the refrigerant in the purge tank sight glass, then perform the following: a. Connect a refrigerant hose from the purge tank Schrader valve to an approved containment vessel. b. Disconnect the line at the pump-out compressor. c. Hold the service switch in the ON position. This will energize the solenoids and allow the purge tank to fill with air. The liquid refrigerant will drain into the container. d. Pour or siphon the water from the top of the refrigerant in the container. Seal the refrigerant in the container for later use or other disposition.

Filter-drier service:

  1. Empty the purge tank and relieve the test pressure. 2. Remove the filter-drier cores (typically two cores) from inside the purge tank. 3. Visually inspect the core and all internal parts. Clean where necessary. 4. Inspect the tank drain valve and line to insure it is free of any debris. 5. Replace the tank gasket. 6. Install new filter-drier cores and gaskets as necessary. Filter-drier cores are able to absorb moisture for one year assuming normal humid air infiltration. 7. Put the tank back in place using a new gasket. 8. Reconnect the pump-out line and solenoid valve. 9. Pressurize the purge tank to manufacturer’s specifications through the isolation solenoids, with the solenoids energized. Check for leaks. Release the pressure. 10. Switch the purge system to the manual ON position and wait for the pump-out compressor to start. 11. If refrigerant needs to be returned to the system, remove the cap from the purge tank drain valve and connect a hose from the drain valve to the container. As the pump-out compressor operates, a vacuum is created in the purge tank, drawing the liquid refrigerant from the container into the purge tank. Disconnect the hose when completed and replace the valve cap. 12. Open the valves on the purge tank inlet and liquid return lines.

Purge pump-out and fault check:

This procedure tests the ability of the purge to remove non-condensable from the unit. This is done by isolating the purge, adding air to the purge tank, and then using the purge compressor to remove the air again.

  1. Note the timer setting and reset to the time recommended by the manufacturer. 2. Set purge control switch to turn on the purge condensing unit (see instruction manual). 3. Close the shutoff valves on the purge tank inlet and liquid return lines to isolate the purge tank. 4. Disconnect the line from the inlet of the pump-out compressor. 5. Energizing the pump-out solenoids and pump-out compressor. The purge will draw air into the purge tank back through the isolation solenoid valves. 6. Note: Repeat this procedure until sufficient air is drawn into the purge tank to initiate a pump-out sequence. Within approximately five minutes the pump-out compressor should start and run until the fault timer setting is exceeded. The pump-out compressor then shuts down. 7. De-energize the purge.
  2. Reconnect the line at the inlet of the pump-out compressor. 9. Restore original fault timer setting, purge initiate pressure setting, purge cut-out pressure setting. 10. Restart the purge by turning the purge control switch to AUTO. 11. Open the shutoff valves on the purge tank inlet and liquid return lines.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Refrigerant recovery/recycle unit 3. Cleaning materials and equipment. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

 

HVAC-CLR-08-02Y Frequency: 2-Year
Vibration Analysis, Chillers
Application

Electronic vibration analysis can detect impending problems which can lead to failure. Manufacturers of centrifugal chillers, in particular, recommend vibration analysis be performed during routine maintenance to ensure safe operation of the chiller.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions and guidelines for vibration analysis. Consult chiller manufacturer for pass/fail specifications as it pertains to vibration. 3. Always purge chiller after it has been opened for servicing. 4. Perform vibration analysis at various loads and compare against the previous vibration analysis. 5. Consult chiller manufacturer for baseline vibration data (for new chiller).

Check Points:

  1. Take baseline readings on all permanently installed vibration transducers. 2. Monitor permanently installed vibration transducers with BAS. 3. An on-staff or contracted Vibration Analysis Technician using specialized software will need to determine criteria for unacceptable vibration signals. 4. Set up maintenance alarms or signal CMMS to issue a work order when transducer output exceeds acceptable levels based on baseline readings. 5. Take corrective action by: a. Having a full set of vibration readings taken by a qualified on-staff or contracted vibration analyst. b. Following the analyst’s diagnostic recommendations.

Recommended Tools, Materials, and Equipment:

  1. Typical sensor used vibration data collection on industrial machinery is an accelerometer: output is typically displayed in units of velocity. Follow manufacturer’s recommendation for use of an accelerometer.

HVAC-CLR-09-03Y Frequency: 3-Year
Non-Destructive Tube Analysis (Eddy Current Analysis) Application

This standard card applies to all centrifugal and absorption type chillers.

Special Instructions:

  1. Coordinate performance of this PM activity with performance of annual PM on the central or packaged chilled water units. Schedule outage with operating personnel. 2. Complete an eddy current test of all heat exchanger tubes, both evaporator and condenser (plus concentrator and absorber in absorption units). 3. The test shall be performed in accordance with current requirements and procedures of the American Society of Mechanical Engineers (ASME) Boiler and Pressure Vessel Code Section V Nondestructive Examination, Article 8, Eddy Current Examination of Tubular Products and applicable recommended practice standards of the American Society for Testing and Materials for Eddy Current Testing. 4. A Certified Level II or higher technician or equivalent shall be used for this analysis in accordance with the American Society of Non-destructive Testing Recommended Practices, SNT-TC-1A, or current version. 5. The test is to be witnessed by the Contracting Officer’s Representative or designated inspector.

Check Points:

  1. Prepare equipment for non-destructive testing (NDT). Remove heat exchanger heads, piping, clean tubes, and erect scaffolding as necessary. 2. Test shall be recorded as required by the ASME code Section V (Article 8 – Appendix I, Article I-20). 3. System calibration shall be confirmed hourly. 4. The written procedure in paragraph I-23, Article 8 – Appendix I in the ASME code is required to be followed. 5. Strip chart recordings shall be provided for:
  2. Each calibration standard and artificial discontinuity comparator used. Annotate to identify each defect machined in the standard and calibration of each division on the chart. b. Typical good tube in each bundle c. For each defective tube, annotate to identify tube. Indicate nature and extent of defect. 6. Test each tube to detect, as a minimum: leaks, saddle damage, pitting, interior erosion/corrosion, gasket condition, presence of “tramp” metal, presence of tube sheet condition. 7. Correct deficiencies as directed. 8. Restore equipment to service.

Reports and Records:

  1. A copy of the magnetic tape record shall be maintained by the NDT contractor and furnished if requested by the Government. 2. A preliminary job site report shall be provided as soon as the test is completed. 3. Within ten (10) working days following completion of the test, the NDT contractor shall provide two complete test reports. Include the following: a. Written test procedure b. Recommendations – List all tubes recommended for replacement or isolation. c. Make complete description of defects (location, depth, inside or outside surface). d. Map location – Show tube row, number, and support for each tube bundle. e. Name of technician performing tests and evaluating data. f. Contractor’s certification of technician qualifications.

HVAC-CLS-01-01Y Frequency: Annually
Coils Cooling, Heating, Preheat, Reheat, Etc.
Application:

This standard applies to all heating and cooling coils that are in the building, including units that are part of an air washer or air handling unit. The coils will be water or steam to air heat transfer coils.

Special Instructions.

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule shutdown with operating personnel, as needed. 3. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.” 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Parent of this Piece of Equipment

Air Handlers

Check Points:

  1. Vacuum or blow out the fins, coils, etc. 2. Comb fins as required. 3. Remove obstructions to air flow. 4. Check coils for leaks. Correct or report any leaks. 5. Check drain pans for proper drainage, standing water, clogged drains and drain pipes. Clean drain pans as required. Check for rust on pans. Repair as necessary. 6. Test and inspect controls that protect coils against freezing. 7. Check for rust or corrosion around coil frame and coil mounting bracket. Clean, prepare for painting and coat with proper type paint as necessary. 8. Record differential air pressure across the coil.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Vacuum Cleaner wet/dry 3. Radiator brush
  2. Coil comb 5. Coil cleaner. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 6. Respirator 7. Safety goggles 8. Materials to properly prepare and paint metal. Consult the MSDS to ensure that the paint lead level is 0.06% or less. 9. Manometer or magnahelic

 

HVAC-CND-01-01M Frequency: Monthly
Condensing Unit, Refrigeration
Application:

This standard applies to critical or special purpose units that have the compressors located inside the air cooled condensing units. These units are considered one-half of a split system. Condensing units are usually installed where compressor noise and/or vibration is undesirable and are connected with an air handler, packaged air conditioning (A/C) unit, modular A/C units (evaporators) that are ceiling or wall mounted, or a split system associated with walk-in freezers and/or refrigerators.If condensing unit is subject or exposed to salt water conditions see salt water location section.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s operation and maintenance instructions. 3. Should be serviced just prior to the cooling season 4. Schedule outage of unit with personnel in area the unit serves. 5. Review the standard operating procedure for “Selection, Care, and Use of Respiratory Protection”. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 8. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 9. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 10. Recover, recycle, or reclaim the refrigerant as appropriate. 11. If disposal of the equipment is required, follow regulations concerning removal of refrigerants and disposal of the unit. 12. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 13. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide.Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers.

Check Points:

  1. Remove debris from air screen and clean underneath unit. 2. Pressure wash coil with coil cleaning solution. Rinse and neutralize (cleaning solution) in accordance with manufacturer’s recommendations. 3. Straighten fins on tubes with a fin comb. 4. Check electrical connections for tightness. 5. Check unit mounts and tighten if necessary. 6. Check all refrigeration lines for support, and signs of wear 7. Thoroughly inspect and clean interior and exterior of machine. 8. Clean and treat all rusted areas. Touch up prime and paint as needed. 9. Check for refrigerant leaks using a halogen leak detector, soap bubbles, or similar testing device. If leaks are not able to be stopped or corrected, report leak status to supervisor. 10. Check refrigerant levels and recharge if needed. 11. Perform required lubrication and remove old or excess lubricant. 12. Clean motor with vacuum or low pressure air (less than 40 psi). Check for obstructions in motor cooling and air flow. 13. Visually inspect disconnect switches and contactors condition, proper operation, arcing or any evidence of overheating and fusing. 14. Check compressor crank case heater for current rating and controller manufacturer’s recommended size before replacing heater. (Heater size shall not be changed without the Regional Design Engineer’s approval.) 15. Check line and load connections and heater mounting screws for tightness. 16. Check condenser fan blades for dust buildup and clean if necessary. 17. Check condenser fan blades and moving parts for excessive wear. 18. Check fan motor RPM before replacing so the unit continues to operate at design specifications. 19. Check bearing collar set screws on fan shaft to make sure they are tight, if applicable. 20. Check dampers for dirt accumulation. Check felt; repair or replace as required. 21. Check damper motors and linkage for proper operation. Adjust linkage on vanes if out of alignment, if equipped. 22. Lubricate mechanical connections of dampers sparingly, if equipped. 23. Check compressor oil level (non-hermetically sealed units only) if compressor is equipped with a sight glass. 24. Run machine with service gauge manifold attached, checking action of controls, relays, switches, and other components to see that: a. compressor(s) run at proper settings. b. controls activate properly. c. controls activate unit.
  2. refrigerant suction and discharge pressures are proper. 25. Check setting on controls and return and adjust back to normal operation if necessary. 26. Clean up the work area and properly dispose of debris and waste.

Note: Seal off all service ports with flare caps. Report any missing caps or dust covers.

Salt water Locations

Application:

This PM guide applies to equipment which has the condenser, fan(s), and fan motor(s) enclosed within the same housing. The compressor and other components are at a separate location. PM of these other devices should be scheduled simultaneously with the units serviced by the condenser. Special care must be taken to protect the unit’s control board and other electrical components from getting any water on them while cleaning. The use of harsh or caustic cleaning agents or materials such as bleach or coil cleaners will cause damage or deterioration of the aluminum fin or coil material and is not recommended. Care must be taken not to bend the aluminum fin stock.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources.” 3. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 4. Deenergize, lock out, and tag electrical circuit breaker.

Avoid use of extremely high-pressure water jet while cleaning coil surface. Fins will damage under extreme high pressure water. Do not use strongly alkaline detergent mixtures (pH greater than 10).

Check points:

  1. Remove debris from air screen and clean underneath unit. 2. Pressure wash coil with biodegradable coil cleaning solution. Apply solution and let it stand for approx. five (5) minutes. Rinse with low pressure water. 3. The most effective method of coil cleaning is to open the unit and clean coils from the inside out using a low pressure-type sprayer. 4. Straighten fin tubes with fin comb.
  2. Check electrical connections for tightness. 6. Check mounting for tightness. 7. Check for and remove all corrosion or rust from unit and supporting steel, prime and paint as necessary. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. Consult the MSDS for proper personal protective equipment (PPE). 8. Check fan blades and belts. Clean fan blades as necessary. 9. Check wires at condenser electrical fused safety switches for tightness and burned insulation. Repair as necessary. 10. Clean up work area.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A. 2. Refrigeration manifold. 3. Pressure washer. 4. Fin comb. 5. Paint brush. 6. Cleaning materials and tools, vacuum, grease gun, and oil. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 7. Respirator 8. Safety goggles. 9. Gloves 10. Rust inhibitor and protective coatings. Consult the MSDS for hazardous ingredients and proper PPE. Consult the MSDS to ensure that the paint lead level is 0.06% or less. 11. Self sealing quick disconnect refrigerant hose fittings. 12. Refrigerant recovery/recycle unit. 13. EPA/DOT approved refrigerant storage tanks. 14. Approved refrigerant. 15. Electronic leak detector.

 

HVAC-CND-01-01Y Frequency : Annually
Condensing Unit, Refrigeration
Application:

This standard applies to normal use units that have the compressors located inside the air cooled condensing units. These units are considered one-half of a split system. Condensing units are usually installed where compressor noise and/or vibration is undesirable and are connected with an air handler, packaged air conditioning (A/C) unit, modular A/C units (evaporators) that are ceiling or wall mounted, or a split system associated with walk-in freezers and/or refrigerators. If condensing unit is subject or exposed to salt water conditions see salt water location section.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Obtain and review manufacturer’s operation and maintenance instructions. 3. Should be serviced just prior to the cooling season 4. Schedule outage of unit with personnel in area the unit serves. 5. Review the standard operating procedure for “Selection, Care, and Use of Respiratory Protection”. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 8. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 9. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 10. Recover, recycle, or reclaim the refrigerant as appropriate. 11. If disposal of the equipment is required, follow regulations concerning removal of refrigerants and disposal of the unit. 12. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 13. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 14. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and all labels on refrigerant containers.

Check Points:

  1. Remove debris from air screen and clean underneath unit. 2. Pressure wash coil with coil cleaning solution. Rinse and neutralize (cleaning solution) in accordance with manufacturer’s recommendations. 3. Straighten fins on tubes with a fin comb. 4. Check electrical connections for tightness. 5. Check unit mounts and tighten if necessary. 6. Check all refrigeration lines for support, and signs of wear 7. Thoroughly inspect and clean interior and exterior of machine. 8. Clean and treat all rusted areas. Touch up prime and paint as needed. 9. Check for refrigerant leaks using a halogen leak detector, soap bubbles, or similar testing device. If leaks are not able to be stopped or corrected, report leak status to supervisor. 10. Check refrigerant levels and recharge if needed. 11. Perform required lubrication and remove old or excess lubricant. 12. Clean motor with vacuum or low pressure air (less than 40 psi). Check for obstructions in motor cooling and air flow. 13. Visually inspect disconnect switches and contactors condition, proper operation, arcing or any evidence of overheating and fusing. 14. Check compressor crank case heater for current rating and controller manufacturer’s recommended size before replacing heater. (Heater size shall not be changed without the Regional Design Engineer’s approval.) 15. Check line and load connections and heater mounting screws for tightness. 16. Check condenser fan blades for dust buildup and clean if necessary. 17. Check condenser fan blades and moving parts for excessive wear. 18. Check fan motor RPM before replacing so the unit continues to operate at design specifications. 19. Check bearing collar set screws on fan shaft to make sure they are tight, if applicable. 20. Check dampers for dirt accumulation. Check felt; repair or replace as required. 21. Check damper motors and linkage for proper operation. Adjust linkage on vanes if out of alignment, if equipped. 22. Lubricate mechanical connections of dampers sparingly, if equipped. 23. Check compressor oil level (non-hermetically sealed units only) if compressor is equipped with a sight glass. 24. Run machine with service gauge manifold attached, checking action of controls, relays, switches, and other components to see that: a. compressor(s) run at proper settings. b. controls activate properly. c. controls activate unit. d. refrigerant suction and discharge pressures are proper.
  2. Check setting on controls and return and adjust back to normal operation if necessary. 26. Clean up the work area and properly dispose of debris and waste.

Note: Seal off all service ports with flare caps. Report any missing caps or dust covers.

Salt water Locations

Application:

This PM guide applies to equipment which has the condenser, fan(s), and fan motor(s) enclosed within the same housing. The compressor and other components are at a separate location. PM of these other devices should be scheduled simultaneously with the units serviced by the condenser. Special care must be taken to protect the unit’s control board and other electrical components from getting any water on them while cleaning. The use of harsh or caustic cleaning agents or materials such as bleach or coil cleaners will cause damage or deterioration of the aluminum fin or coil material and is not recommended. Care must be taken not to bend the aluminum fin stock.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources.” 3. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 4. Deenergize, lock out, and tag electrical circuit breaker.

Avoid use of extremely high-pressure water jet while cleaning coil surface. Fins will damage under extreme high pressure water. Do not use strongly alkaline detergent mixtures (pH greater than 10).

Check points:

  1. Remove debris from air screen and clean underneath unit. 2. Pressure wash coil with biodegradable coil cleaning solution. Apply solution and let it stand for approx. five (5) minutes. Rinse with low pressure water. 3. The most effective method of coil cleaning is to open the unit and clean coils from the inside out using a low pressure-type sprayer. 4. Straighten fin tubes with fin comb.
  2. Check electrical connections for tightness. 6. Check mounting for tightness. 7. Check for and remove all corrosion or rust from unit and supporting steel, prime and paint as necessary. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. Consult the MSDS for proper personal protective equipment (PPE). 8. Check fan blades and belts. Clean fan blades as necessary. 9. Check wires at condenser electrical fused safety switches for tightness and burned insulation. Repair as necessary. 10. Clean up work area.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A. 2. Refrigeration manifold. 3. Pressure washer. 4. Fin comb. 5. Paint brush. 6. Cleaning materials and tools, vacuum, grease gun, and oil. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 7. Respirator 8. Safety goggles. 9. Gloves 10. Rust inhibitor and protective coatings. Consult the MSDS for hazardous ingredients and proper PPE. Consult the MSDS to ensure that the paint lead level is 0.06% or less. 11. Self sealing quick disconnect refrigerant hose fittings. 12. Refrigerant recovery/recycle unit. 13. EPA/DOT approved refrigerant storage tanks. 14. Approved refrigerant. 15. Electronic leak detector.

 

HVAC-DMP-01-01Y Frequency: Annually
Motorized Dampers, Pneumatic or Electric
Application

This standard applies to all dampers in the HVAC system including air handlers and remote dampers.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule shutdown with operating personnel, as needed. 3. Review manufacturer’s instructions. 4. During damper servicing, moveable surfaces should be cleaned and lubricated. 5. For pneumatic systems, verify proper main line pressure per manufacturer’s specifications. 6. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times.

Parent of this Piece of Equipment

Air Handlers

Check points:

  1. Cleaning dampers annually with a power washer or with a bucket of soapy water and a brush. If dampers are on the intake of an air handler, ensure unit is shut down prior to cleaning. 2. Check damper for freedom of movement and proper operation. Drive actuator through full range. 3. Observe damper operation through full operating range, by activating controller. 4. Check damper surfaces for wear and clean vanes. 5. Check damper end bushings for excessive wear. Replace as needed. 6. Check actuator/damper linkage for proper operation. Adjust if needed. Tighten operator arm set screws. 7. Lubricate mechanical connections sparingly using an approved lubricant. Wipe off excess. 8. Check actuator for proper operation. a. If it does not stroke properly, check for binding drive stem.
  2. If actuator still does not operate properly, pressure test the diaphragm. If the diaphragm fails the pressure test, replace the diaphragm (pneumatic actuators). c. If the actuator still does not operate properly, disassemble the actuator (pneumatic actuators only) and check the accumulator for excessive wear or binding. Repair or replace the actuator. d. If the actuator has a pilot positioner (pneumatic only) calibrate the pilot positioner. 9. Check for proper operating voltage, signal voltage, and resistance as applicable on motorized actuators. 10. Check hydraulic fluid levels if applicable on electro-hydraulic motors. If low or discolored replace hydraulic medium or actuator per manufacturer’s instructions. 11. If damper is used for outside air economizer, check economizer setpoints in the BAS. 12. For pneumatic actuators, check for air leaks around actuator and in air line between controller and actuator. 13. Lubricate actuator linkage sparingly. Wipe off excess lubricant. DO NOT LUBRICATE actuator/drive stem. 14. Clean off any corrosion or rust on damper frame and or damper blades and restore original finish.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Lubricants

HVAC-EVP-01- 03M Frequency: Quarterly
Indirect Evaporative Cooling System
Application:

This standard card applies to those installations that utilize a indirect evaporative cooler as a precooler for an air handler system. Indirect evaporative cooling does not add moisture to the airstream to cool the air by means of contact with a cooling coil or other impermeable heat exchange surface. Typically, air or water is circulated through one side of the heat exchange surface while supply air is drawn through or past the other side, cooling the air. Heat exchange surfaces can be tubes or plates. These types of systems may have individual sumps or may also have a common sump. They may also be installed in conjunction with direct evaporative systems.

If this equipment is part of an Air Handler, the Air Handler will be serviced using that standard card and the evaporative cooler should be scheduled for accomplishment at the same time.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule outage with operating personnel. 4. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times. Open, lock, and tag out electric circuits serving motors for the air handler, indirect evaporative cooling fan (if equipped) and circulating pump(s). 5. Preventive maintenance on associated equipment should be accomplished at this time.

Check Points:

  1. Examine and wire brush all structural elements including doors, chamber, piping, plates, supports, pans, sumps, and framing. 2. Clean tank or sump and examine for leaks. 3. Examine all heat transfer surfaces for leaks, cracks or evidence of scaling. Check piping and plates for blockage or buildup. Clean as required. 4. Treat with rust inhibitor and paint as required. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. 5. Clean pump suction screens.
  2. Check operation of float valve, mixing or automatic control valves and thermometers. 7. Pumps and motors less than 1 HP will be serviced as part of this PM. Pumps and motors 1 HP and larger will be serviced using PM standard cards HVACPMP-01 and ELEC-MOT-01 respectively. a. Clean and lubricate pump. Check and replace packing if applicable. b. Blow out or vacuum motor windings and lubricate if required. 8. Check belts or drives on the indirect fan motors for wear, proper adjustment and proper alignment. Replace if necessary. Multiple belt installations require the belts to be replaced as sets. 9. Check outside (intake) air filters. Clean or replace as necessary. 10. If equipped, check exhaust filters. Clean or replace as necessary. 11. Remove tags and lockout from circuits for circulating pump only. 12. Check with operating personnel before restoring circuits to the air handlers, to be certain personnel are not working on the unit.

Note: Pans and sumps should remain dry during winter operation. Tags should be removed from supply valves at the completion of this work, but the valves should be opened by operating personnel only when the unit is to be filled and placed in service.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Cleaning tools and materials, vacuum, grease gun and oil. 3. Rust inhibitor and paint. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Gasket material 5. Goggles

 

HVAC-EVP-02-03M Frequency: Quarterly
Direct Evaporative Cooling System
Application:

This standard card applies to those installations that utilize a direct evaporative cooler as either a precooler for an air handler system or as a stand alone system. Direct evaporative cooling adds moisture to the airstream to cool the air by means of a cooling pad or media. Typically, water is circulated via a small pump over the media while air is drawn through it cooling the air. These types of systems may have individual sumps or may also have a common sump.

If this equipment is part of an Air Handler, the Air Handler will be serviced using that standard card and the evaporative cooler should be scheduled for accomplishment at the same time.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule outage with operating personnel. 3. Review manufacturer’s instructions. 4. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times. Open, lock, and tag out electric circuits serving motors for the air handler, evaporative cooling fan (if equipped) and circulating pump. 5. Preventive maintenance on associated equipment should be accomplished at this time.

Check Points:

  1. Examine and wire brush all structural elements including doors, chamber, piping, supports, pans, sumps, and framing. 2. Clean tank or sump and examine for leaks. 3. Treat with rust inhibitor and paint as required. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. 4. Clean pump suction screens. 5. Check pad distribution piping and clean as necessary. Replace as required. 6. Check piping for blockage or buildup. Clean or replace as required. 7. Check operation of float valve, mixing or automatic control valves and thermometers.
  2. Pumps and motors less than 1 HP will be serviced as part of this PM. Pumps and motors 1 HP and larger will be serviced using PM standard cards for the respective equipment. c. Clean and lubricate pump. Check and replace packing if applicable. d. Blow out or vacuum motor windings and lubricate if required. 9. Remove tags and lockout from circuits for circulating pump only. 10. Check with operating personnel before restoring circuits to the air handlers, to be certain personnel are not working on the unit.

Typical Maintenance Items At start of season (Start-Up)
During the season
At end of season (Shut-Down) Clean pads X As needed X Remove and clean or replace pads As needed As needed As needed Clean pump X As needed X Drain and clean water pan X As needed X Touch-Up cabinet As needed As needed As needed

Note: Pans and sumps should remain dry during winter operation. Tags should be removed from supply valves at the completion of this work, but the valves should be opened by operating personnel only when the unit is to be filled and placed in service.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Cleaning tools and materials, vacuum, grease gun and oil. 3. Rust inhibitor and paint. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Gasket material 5. Goggles

 

HVAC-EVP-03-03M Frequency: Quarterly
Humidification Systems
Application:

This standard card applies to self-contained humidification units containing a complete system or units which are part of a large air handler and controlled by a humidistat. These units are used to add or maintain the humidity at a prescribed level in a space in a given temperature range. These can be powered by a steam generator, supplied by site steam or electric.

Special Instructions.

  1. Review manufacturer’s instructions. 2. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.” 3. Turn off water supply. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Use of work gloves may be necessary due to caustic residual mineral deposits.

Check points.

  1. Operate humidistat through its throttling range to verify activation, or deactivation of humidifier. 2. Clean and flush condensate pans, drains, water pans, etc. Remove corrosion, and repaint or recoat as needed. If a corrosion preventive chemical is used, ensure that it does not become a part of the indoor air by creating large amounts of volatile organic compounds or irritants. Check the Material Safety Data Sheet (MSDS) to see what hazardous products are present. If hazardous products are present rinse very well before the system is returned to use. Ensure that the paint lead level is 0.06% or less. 3. Check condition of heating element. Clean steam coils. 4. Clean steam/water spray nozzles. Adjust/replace as needed. 5. Chemically clean exterior of coil to remove scale and encrustations present on the coil. 6. Inspect steam trap for proper operation. 7. Inspect pneumatic controller for air leaks. 8. Inspect water lines for leaks and corrosion. Tighten all connections and repair leaks.

Recommended Tools, Materials, and Equipment.

 

  1. Tool Group A 2. Psychrometer 3. Coil cleaning chemical. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Work gloves 5. Safety goggles 6. Respirator

 

HVAC-FAN-01-01Y Frequency: Annually
Fan, Centrifugal
Application

This standard is for centrifugal fans typically found in air handling systems. Although they may be found in other systems such as exhaust systems This standard will typically be performed with the parent standard as noted below. Motor PM shall be performed at the same time as the fan PM.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule shutdown with operating personnel, as needed. 3. Review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. All tests shall conform to the appropriate NETA test procedure and the values used as standards shall conform to the manufacturer’s, NETA, and ANSI Standards specifications. 6. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Equipment.” 7. Refer to appropriate standard cards and manufacturer’s instructions for motor maintenance.

Parent of this Piece of Equipment

Air Handlers

Check points:

  1. Check fan blades for dust buildup and clean if necessary. 2. Check fan blades and moving parts excessive wear. Clean as needed. 3. Check fan RPM to design specifications. 4. Check bearing collar set screws on fan shaft to make sure they are tight. 5. Remove old or excess lubricant while fan is off. 6. Vacuum interior of unit if accessible. Clean exterior. 7. Lubricate fan shaft bearings while unit is running. Add grease slowly until slight bleeding is noted from the seals. Do not over lubricate. 8. Check belts for wear, adjust tension or alignment, and replace belts when necessary. Multiple belts should be replaced with matched sets.
  2. Check pulley wheels and clean and lubricate as required. 10. Check structural members, vibration eliminators, and flexible connections. Check fan housing to ensure there is no damage and the housing is tight. 11. Remove all trash and clean area around fan and fan room.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Tachometer 3. Cleaning equipment and materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Vacuum 5. Grease guns, lubricants – Consult the MSDS for hazardous ingredients and proper PPE. 6. Respirator

HVAC-FAN-02-01Y Frequency: Annually
Fan, Propeller or Axial
Application

This standard is for propeller or axial fans typically found in air handling systems. Although they may be found in other systems such as exhaust systems. This standard will typically be performed with the parent standard as noted below. Motor PM shall be performed at the same time as the fan PM.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule maintenance with operating personnel. 3. Obtain and review manufacturer’s information for servicing, testing and operating. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Parent of this Piece of Equipment

Air Handlers

Check Points:

  1. Clean unit, especially fan blades. 2. Inspect pulleys, belts, couplings, etc.; adjust tension and tighten mountings as necessary. Change badly worn belts. Multiple belts should be replaced with matched sets. 3. Perform required lubrication and remove old or excess lubricant. 4. Clean motor with vacuum or low pressure dry air (less than 40 psig). Check for obstructions in motor cooling and air flow. 5. Remove all trash and debris. 6. Start unit and check for vibration and noise.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Vacuum 3. Cleaning materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).
  2. Lubricants – Consult the MSDS for hazardous ingredients and proper PPE.

HVAC-FCU-01-03M Frequency: Quarterly
Fan Coil Unit
Application

This standard applies to all fan coil units; with or without fan speed control in two or four pipe systems. These units may be found in various locations including wall mounted, under window mounted, or ceiling mounted.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule shutdown with operating personnel, as needed. 3. Review manufacturer’s instructions. 4. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times.

Check Points:

  1. Check fan blades for dust buildup and clean if necessary. 2. Check fan blades and moving parts for cracks and excessive wear. 3. Check running motor amperes. Compare with manufacturer’s specifications. 4. Tighten all electrical connectors to proper torque 5. Check that the fan runs properly in all speeds as applicable. 6. Check dampers for dirt accumulations, clean as necessary. Check felt, repair or replace as necessary. 7. Check damper actuators and linkage for proper operation as applicable. Adjust linkage on dampers if out of alignment. 8. Lubricate mechanical connections of dampers sparingly as applicable. 9. Check the valve(s) for signs of leakage and proper operation. Repair or replace as necessary. 10. Clean coils by brushing, blowing, vacuuming, or pressure washing. 11. Check coils for leaking, tightness of fittings. 12. Use fin comb to straighten coil fins. 13. Check belts for wear and cracks, adjust tension or alignment as applicable. Replace belts when necessary. 14. Check rigid couplings for alignment on direct drives, and for tightness of assembly. 1. Before heating season on units with outside air (chilled water coils only): a. Drain cooling coils; b. Blow down to remove moisture.
  2. Check freezestat for proper temperature setting and operation on units with outside air. 3. Vacuum interior of unit. 4. Check filter door for proper gasketing and air leaks. Correct as necessary. 5. Change the filter with the correct size and type filter. 6. Insure that drain(s) are clear and running. 7. Clean up work area.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A 2. Vacuum. 3. Fin comb 4. Cleaning tools and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 5. Safety goggles. 6. Gloves.

 

HVAC-FLT-01-03M Frequency: Quarterly
Filters, Throw Away
Application This standard is normally used for replicable prefilters, throw away type pleated filters or similar filters in air handling systems. This standard will typically be performed with the parent standard as noted below.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions and become familiar with manufacture recommended operating velocity. This information will assist in selecting proper filter efficiencies. 3. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Equipment.” 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The efficiency of all filters used in GSA controlled space will conform to the requirements of ASHRAE test method 52.1-92. 6. Review equipment design and or filter design specifications where applicable for the equipment. The design filter MERV rating shall be determined and installed.

Check points:

  1. Replace filters when they lose their efficiency or when they are so clogged that they produce too much pressure drop across the filter. Check magnehelic gage to insure maximum pressure drop has not been reached. 2. Replace filters if the frame is bent or warped, or if the filtering medium is punctured. 3. Replace filters with the arrows on the frame pointing in the direction of airflow. 4. Check filter size and insure filters are installed to prevent leakage between the filter bed and its supporting frame. 5. Remove tags, restore to service, and check for proper operation. 6. Clean up work area and remove trash.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Filter replacement
  2. Vacuum 4. Respirator

HVAC-FLT-02-03M Frequency: Quarterly
Filters, Roll, Disposable
Application

This standard applies to changing disposable roll filter media. This standard will typically be performed with any required air handler maintenance.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 3. De energize fan, media motor; tag and lock out circuit. 4. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Equipment.”

Parent of this Piece of Equipment

Air Handlers

Check points:

  1. Remove old filter media as required and install new roll. 2. Vacuum heavy accumulation of dust and remove debris. 3. Inspect for proper alignment and operation of automatic controls, adjust as necessary. 4. Clean and lubricate filter rollers and transport mechanisms as necessary for proper operation. 5. Remove all trash from area and room, put equipment back in operation.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Respirator 3. Goggles

HVAC-FLT-02-01Y Frequency: Annually
Filter, Roll Type Disposable
Application

This standard applies to changing disposable roll filter media as part of a larger air handler. This maintenance should be performed along with quarterly filter maintenance and any air handler maintenance as required.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Equipment.” 5. Review manufacturer’s instructions and become familiar with manufacture recommended operating velocity. This information will assist in selecting proper filter efficiencies. 6. The efficiency of all filters used in GSA controlled space will conform to the requirements of ASHRAE test method 52.1-92.

Parent of this Piece of Equipment

Air Handlers

Check points:

  1. Remove old filter media roll, vacuum heavy dust and remove debris. 2. Inspect framework and structure. Look for loose or missing bolts, air leaks, condition of flashing or caulking. 3. Inspect all moving parts for proper alignment, freedom of motion, excessive clearance or play, Clean, adjust or tighten as necessary. 4. Install new media roll, inspect powered roll, and take-up roll for correct tracking of media. On manual operation, check wheel or hand crank. 5. On motor drives, check pressure sensing device(s) and pressure switches. Test settings for starting and stopping motor. 6. Inspect motor, starter, controls, selector switch for auto warning or indicator lights.
  2. Check oil in gear case. Change or replenish as required. Perform required lubrication using graphite where it is suitable. Remove old or excess lubricant. 8. Remove all trash and debris to proper disposal area.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Respirator 3. Goggles 4. Appropriate lubricants – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

 

HVAC-FLT-03-03M Frequency: Quarterly
Filters, Electrostatic
Application

This standard applies to all electrostatic filters used in air handling and kitchen applications. This standard will typically be performed with the parent standard as noted below.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Equipment.” 5. Ground bus trips, top to bottom.

Parent of this Piece of Equipment

Air Handlers

Check points:

  1. Before securing unit, check indicators for defective tubes or broken ionizing wires. 2. Secure filter unit and air handler. 3. Wash each manifold until totally clean. Units with water wash spray require approximately four (4) minutes with warm water or seven (7) minutes with cold water. 4. If dry filters are dirty, remove and clean or replace filter. 5. While cells are drying, look for defects, particularly broken wires or hum suppressor. Wipe insulators with soft dry cloth. 6. If unit requires disassembly, check it thoroughly, clean, and adjust as required. 7. Restore to service and check for evidence of shorts. 8. Clean work area and remove trash to proper disposal area.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic
  2. Respirator 3. Cleaning equipment and materials – Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

HVAC-FLT-04-03M Frequency: Quarterly
Filters, Viscous Type (Wire Mesh)
Application

This standard is for reusable filters and includes time for removing, cleaning, and replacing the filters. The throw-away filters are usually more economical than the viscous type. This standard will typically be performed with the parent standard as noted below.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Equipment.” 3. The efficiency of all filters used in GSA controlled space will conform to the requirements of ASHRAE test method 52.1-92. 4. Filter efficiencies will be selected in accordance with the operating velocity recommended by the manufacture. 5. Liquid adhesive coatings used on air filters shall have a flash point no lower than 325 °F (163°C) as determined by ASTM D93 and the filter will meet all NFPA and UL standards. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Parent of this Piece of Equipment

Air Handlers

Check points.

  1. Remove filters and replace with filters that have been cleaned and recoated. Examine frame and clean it with a high suction vacuum. Repair or replace damaged frame. 2. Move dirty filters to cleaning station. 3. Clean, recoat, and store filters removed until next scheduled change.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Respirator
  2. Goggles

HVAC-FLT-05-03M Frequency: Quarterly
Filters, Charcoal
Application

This standard card applies to charcoal filters used in air distribution systems to clean air of undesirable or hazardous materials. These filters may be cleaned by group forces or require shipping to manufacturer for recycling.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Notify operating personnel before shut down. 3. Maintenance personnel must wear NIOSH/MSHA respirators and appropriate protective clothing and equipment when servicing filters involving hazardous materials, i.e., shooting ranges, research laboratories, chemical laboratories, photographic development labs, etc. 4. Follow manufacturer’s recommendations for handling, transporting, cleaning and shipping filters. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Parent of this Piece of Equipment

Air Handlers

Check points:

  1. Remove old filters and place in plastic bags. 2. Clean filter holder, rack and surrounding area. 3. Install new filter. 4. Place cleaning materials in plastic bags for disposal if work involves hazardous materials. Consult the Material Safety Data Sheets (MSDS) for proper disposal. Recommended Tools, Materials, and Equipment:
  2. Standard Tools – Basic 2. Filter replacement 3. Vacuum 4. Respirator

HVAC-FLT-06-01M Frequency: Monthly
Filters, Special situations or conditions.

Application This standard is used for all filter types that will require changing monthly due to special or unusual air quality conditions. Use the applicable quarterly standard that applies to the specific filter type used.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions and become familiar with manufacture recommended operating velocity. This information will assist in selecting proper filter efficiencies. 3. Review the Standard Operating Procedure for “Selection, Care and Use of Respiratory Equipment.” 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The efficiency of all filters used in GSA controlled space will conform to the requirements of ASHRAE test method 52.1-92. 6. Review equipment design and or filter design specifications where applicable for the equipment. The design filter MERV rating shall be determined and installed.

Check points:

Reference applicable Quarterly standard.

  1. HVAC-FLT-01-03M Filter, Throw Away b. HVAC-FLT-02-03M Filter, Roll Type, Disposable Media c. HVAC-FLT-03-03M Filter, Electrostatic d. HVAC-FLT-04-03M Filters, Viscous Type (Wire Mesh) e. HVAC-FLT-05-03M Filter, Charcoal

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Filter replacement 3. Vacuum 4. Respirator

HVAC-HXR-01-01Y Frequency: Annually
Plate and Frame Heat Exchanger
Application

This standard applies to plate and frame heat exchangers. A plate and frame heat exchanger consist of plates separating the hot and cold fluids. Plate and frame heat exchangers have very high heat transfer surface area due to the large surface area of the plates in contact with the operating fluid. Plate and frame heat exchangers are compact compared to tube type heat exchanger of similar capacity. In commercial building application, plate and frame type heat exchangers are normally used in water side economizer systems.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions and drawings. 3. Open unit only when defective plates are suspected or leaks occur that cannot not be stopped by tightening. 4. If unit is opened follow manufacturer’s instructions concerning disassembly, internal cleaning and reassemble. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Never open the unit when hot. 7. The pressure of both liquids should be simultaneously decreased gradually when shutting down a unit. 8. If leaks occur tighten to average dimension as shown on assembly drawing or unit data plate, follow manufacturer’s suggested tightening sequence. 9. Back flush the unit when fibers or large particulate are present this can be accomplished by flushing the unit with clean water in reverse flow at 1 to 1½ times product flow or by arranging piping and valves so the unit may be operated in reverse flow mode on the product side for certain periods of time. 10. Clean in Place (CIP) when back flushing does not provide desired results, The unit must be flushed clear to obtain a thorough cleaning and it is necessary to flow CIP solution bottom to top to ensure wetting of all surfaces the rate of flow should be greater than normal product flow rate. 11. Strainers should be installed in supply lines ahead of the exchanger when the streams contain significant solids or fibers.

Check Points:

 

  1. Check exposed bolt threads, upper guide bars, rollers in the moveable end frame and connecting frame. Clean and coat with a light grease. 2. Check unpainted carbon steel surfaces, clean and coat with light grease, SAE30 oil or other rust inhibiting product. 3. Check pressure and temperature gauges, Back flush unit and clean in place annually or any time pressure/temperature profile exceeds set limits. 4. Check unit for leaks, follow manufactures trouble shooting guide to locate defective plates. 5. Check overall external appearance and condition of unit.

HVAC-PMP-01-01Y Frequency: Annually
Centrifugal Pump
Description:

This procedure applies to all types of centrifugal pumps found in various mechanical systems throughout the building.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system PRIOR to making any changes. 3. Schedule service outages for the areas controlled by the field panel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. For replacement of mechanical seals, see the addendum at the end of this standard. It is generally not a good idea to tamper with pumps using mechanical seals if they are otherwise performing properly. Since mechanical seals can cost as much as the pump, it is usually not cost effective to risk damaging the seal by performing an annual internal inspection of the pump.

Check points:

  1. Visually inspect the energized pump and motor. Look for fluid leaks originating from the area of the mechanical seal. Replace seal even if leaking only slightly. If seal is leaking, perform the following. a. Disconnect and remove pump/motor coupling from pump shaft. b. Clean external pump housing and shaft. c. Remove flange on pump housing to remove pump mechanical seal assembly while noting how the seal is assembled on the shaft and in the pump housing. d. After old seal has been removed, clean surfaces of shaft sleeve. e. If this sleeve is galled or damaged, a new seal will not hold for long. It is best to replace the shaft sleeve at this time. f. If the shaft sleeve is not damaged, follow seal manufacturer’s instructions and install new mechanical seal. g. Install new pump housing “O” ring or gasket, reinstall pump housing. h. Slowly open discharge and suction valve, then rotate pump shaft to assist in setting mechanical seal.
  2. Look for fluid leaks from other areas of the pump, flanges and gaskets, pressure gauges and fittings, bypass tubes or piping, and air release valves. 3. Look for bearing oil or grease leaks. 4. Observe coupling for excessive noise or obvious misalignment. 5. Observe fluid temperatures, pressures, and bearing temperatures if thermometers and pressure gauges are available. 6. De-energize pump and motor. 7. Observe pump and motor during shutdown. Often times, vibration and bearing problems become more noticeable during a coasting slowdown of the pump and motor. 8. Close suction and any bypass valves. Bleed off pressure but do not drain pump. 9. Observe pressure gauges for signs that the discharge check valve is not closing tightly. 10. Close discharge valve. Bleed off pressure but do not drain pump. Observe pressure gauges for signs that the discharge and suction valves are not closing tightly. 11. Lubricate pump and motor bearings. DO NOT OVER LUBRICATE 12. Use a torque wrench to check the tightness of all bolts, especially the bolts of cast iron pumps. 13. Closely inspect the pump-motor coupling. 14. Check motor and pump alignment. 15. Inspect and clean suction strainers and blowdown valves. 16. Clean pump and casing surfaces.

Other pumps:

  1. Check that base bolts are securely fastened. 2. After shut-down, drain pump housing, check suction, discharge and check valve for holding. 3. Remove cover gland and packing. 4. Remove corrosion from impeller shaft and housing cover. 5. On pumps with oil ring lubricated bearings, drain oil, flush, and fill to proper oil level with new approved type oil. 6. Inspect water rings, seals, and impeller. 7. Clean pump suction strainers, and pump packing water seal filter/strainer. 8. Replace packing and reassemble. 9. Start and stop pump, noting vibration, pressure, and action of check valve. 10. Adjust packing. 11. Lubricate impeller shaft bearings. Do not over lubricate. 12. Check motor and pump alignment. 13. Check drive shaft coupling. 14. Clean up work area and remove all debris.

COUPLING SIZE
ALLOWABLE ALIGNMENT 1″-2″ 0.101 Total ind. reading Over 2″-4″ 0.015 Total ind. reading Over 4″-7″ 0.020 Total ind. reading

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Alignment indicator 3. Grease gun 4. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Hoist assembly for large pumps.

HVAC-PMP-02-01Y Frequency: Annually
Vacuum Pump
Application

This standard card applies to vacuum pumps used in printing plants, photographic plants, and other operation that requires a vacuum to operate. These units vary in size and appearance. They may resemble a small tank-less air compressor or a larger tank mounted and belt driven air compressor

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system PRIOR to making any changes. 3. Schedule service outages for the areas controlled by the field panel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Drain oil from reservoir if applicable. Place oil in a proper receptacle for oil disposal. 2. Remove oil filter and replace, if applicable. 3. Remove oil sight glass and clean as needed. 4. Fill with the appropriate type and amount of oil if applicable. Refer to manufacturer’s specifications for the equipment. 5. Remove the exhaust filter and replace. 6. Check the exhaust chamber and oil return line for clogging. Clean if needed. 7. Inspect the exhaust chamber for excess oil. Wipe out if needed. 8. Inspect the vacuum inlet filter. 9. Wipe out the interior of the filter housing 10. Wipe exterior surfaces of the pump free of debris and oil. 11. Remove and clean the vacuum diverter valve. Replace with new if needed. 12. If applicable, check the drive belt for cracks fraying and stretching. Replace if worn.

Recommended Tools, Materials, and Equipment: 1. Tool Group A

  1. Cleaning tools and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 3. Safety goggles. 4. Gloves.

HVAC-STM-01-01Y Frequency: Annually
Condensate or Vacuum Pump
Application:

These pumps are generally present in steam systems, when condensate is returned to the steam plant to be reused or is expelled from the system. When steam is supplied by a local utility the condensate is not usually recirculated, since it is usually monitored for billing purposes. In some cases condensate pumps are present at coiling coils with dehumidification loads.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. This maintenance should only be performed when it will not prevent operation of the steam boiler. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check points:

  1. Operate unit to check for steam binding. 2. Check condensate temperature. It should be approximately 30ºF (17ºC) below steam temperature if traps are not leaking. 3. Examine flanges for steam leaks, replace gaskets as necessary. 4. Pump receiver down. 5. Turn condensate to sewer. 6. Shut down unit. 7. Clean and examine receiver, vent pipe, inlet and discharge openings for corrosion; remove all external corrosion, and paint with appropriate type paint. 8. Clean and adjust motor float switch and float operation on high low water level. Inspect float rods and pressure switches. 9. Make any adjustments as necessary. 10. Check alignment of motor and pump coupling with straight edge. Align if necessary. 11. Lubricate pump and motor. 12. Adjust packing glands and change packing when necessary. 13. Examine vacuum breaker operation. 14. Inspect ball floats, rods, and other linkage, adjust as necessary.
  2. Properly dispose of all debris.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Clean wiping cloths. 4. Gasket materials as required. 5. Metal cleaning materials and appropriate paint as necessary. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 6. Six inch level and straight edge.

 

HVAC-TAB-01-05Y Frequency: 5-Year
Test-And-Balance
Application:

These standard applies to Test-And-Balance.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review most recent certified TAB report. 3. Verify that any subsequent remodeling, tenant improvements, or installation of major electrical devices have been reviewed by a mechanical engineer for impacts on heating and cooling loads.

Check Points:

  1. Using flow hoods, traverse pitot or anemometer to verify minimum and maximum air flows against the report. 2. Use pressure gauges to verify water flow rates against the report. 3. Verify readings agree with BAS readings, to within 5-10%.

Recommended Tools, Materials, and Equipment:

  1. Flow hood 2. Traverse pitot tube or anemometer 3. Pressure gauges or flow meter

HVAC-TMU-01-01Y Frequency: Annually
Terminal Units, Pneumatic or Electric
Application:

This maintenance standard applies to most terminal units (mixing boxes) which are found in most types of air handling systems. The terminal unit may be VAV, CAV, dual duct, with or without heating/re-heating or cooling, and be pressure dependant or pressure independent. These mixing boxes will be controlled by either pneumatics or Direct Digital Controls (DDC). The re-heat coil maintenance shall be combined with this standard.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s specifications. 3. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any control changes. 4. For pneumatic systems, verify proper main line pressure per manufacturer’s specifications. 5. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times.

Check Points:

DDC:

  1. Check to see that the operating control sensor activates the damper per design specifications. If not, recalibrate or replace the operating control sensor with the same temperature range sensor. 2. Check damper linkage for tightness or damage. Lightly oil moving parts using an approved lubricant. 3. Inspect damper(s) for free movement in mixing box. Replace felt or other type seals as required. 4. Inspect mixing box and connecting ductwork for air leaks. Correct leaks with approved duct tape or tighten connections, as required. 5. Tighten electrical connections to all servo-motor actuators, and test as applicable.
  2. Check the heating or cooling valve (if present) for leakage around the stem or between the seat and disk. Repair or replace as needed. 7. Check velocity sensor tubing for cracks, tightness, or holes if applicable. Re-heat (if applicable) 8. Check electrical connections and insulators on re-heat coils. 9. Vacuum or blow out the fins, coils, etc. 10. Comb fins as required. 11. Remove obstructions to air flow. 12. Check coils for leaks. Correct or report any leaks. 13. Test and inspect controls that protect coils against freezing. 14. Check for rust or corrosion around coil frame and coil mounting bracket. 15. Clean, prepare for painting and coat with proper type paint as necessary. 16. Record differential air pressure across the coil.

Pneumatic:

  1. Check damper linkage for tightness or damage. Lightly oil moving parts using an approved lubricant for pneumatic systems. 2. Inspect damper(s) for free movement in mixing box. Replace felt or other type seals as required. 3. Inspect mixing box and connecting ductwork for air leaks. Correct leaks with approved duct tape or tighten connections, as required. 4. Inspect damper actuator(s) for tightness to mounting brackets. 5. Inspect damper actuator diaphragm for leaks by performing a pressure test of the diaphragm. 6. Check the damper actuator spring range. Replace spring, adjust pilot positioner, or add pilot positioner as needed. 7. If pneumatic actuator does not stroke properly, correct sticking valve stem or binding linkage. Replace or repair the diaphragm or actuator if necessary. 8. Check the heating or cooling valve for leakage around the stem or between the seat and disk. Repair or replace as needed. 9. Inspect the valve actuator for leaks by performing a pressure test of the diaphragm. Repair or replace as needed. 10. Check the spring range of the valve actuator. Replace spring, adjust pilot positioner or add pilot positioner as needed. 11. Inspect for air leaks around actuator and in the air line between controller and pneumatic actuator. 12. Inspect operating control thermostat and/or pressure sensor for proper location and check main and branch air lines at thermostat for crimps, breaks, etc. Repair or replace if needed. 13. Check all inline filters for oil and/or moisture. Replace as needed.
  2. Check all installed pressure gages for proper range and operability as applicable. Replace if needed. 15. Perform a spring range check for all remaining end devices. 16. Calibrate the operating control thermostat. Replace if it is defective with the same type action (direct or reverse action) and temperature range. 17. Check to see that the operating control thermostat activates the damper per design specifications. If not, recalibrate the operating control thermostat. Re-heat (if applicable) 18. Check electrical connections and insulators on re-heat coils. 19. Vacuum or blow out the fins, coils, etc. 20. Comb fins as required. 21. Remove obstructions to air flow. 22. Check coils for leaks. Correct or report any leaks. 23. Check for rust or corrosion around coil frame and coil mounting bracket. 24. Clean, prepare for painting and coat with proper type paint as necessary. 25. Record differential air pressure across the coil.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Control drawings 3. Calibration tools 4. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Duct tape 6. Cleaning materials and equipment. Consult the MSDS for hazardous ingredients and proper PPE. 7. Safety goggles

HVAC-TMU-02-03M Frequency: Quarterly
Terminal Units, Pneumatic or Electric, Predictive Maintenance Application:

This maintenance standard applies to most terminal units (mixing boxes) which are found in most types of air handling systems. The terminal unit may be VAV, CAV, dual duct, with or without heating or cooling, and be pressure dependant or pressure independent. These terminal units will be controlled by Direct Digital Controls (DDC) ONLY. This standard includes some predictive maintenance tasks and can be used as an alternative to the purely preventive maintenance standard for DDC controlled units only.

The use of a fault detection diagnostic tool, such as VAV Box Performance Assessment Control Charts (VPACC, form NIST) which uses a small number of control charts to assess the performance of VAV boxes is the primary means for this predictive maintenance task. This standard assumes that the diagnostic tools is installed and functioning properly and that staff has been trained on its use.

O&M contractors may propose changes to this standard. Such changes are subject to GSA approval. Proposed changes to standards must be submitted showing markups of changes for GSA approval.

This standard may be used in lieu of standard HVAC-TMU-01-01Y. However, this standard is performed quarterly.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s specifications. 3. Read and understand manufacturer’s instructions of each device before making adjustments to the device or to the system. Understand what effects making adjustments will have on the overall Building Automation System and the operation of the building PRIOR to making any control changes. 4. For pneumatic systems, verify proper main line pressure per manufacturer’s specifications. 5. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. Follow lock out/tag out procedures at all times.

 

Check Points:

DDC:

  1. Check to see that the operating control sensor activates the damper per design specifications. If not, recalibrate or replace the operating control sensor with the same temperature range sensor. 2. Check damper linkage for tightness or damage. Lightly oil moving parts using an approved lubricant. 3. Inspect damper(s) for free movement in mixing box. Replace felt or other type seals as required. 4. Inspect mixing box and connecting ductwork for air leaks. Correct leaks with approved duct tape or tighten connections, as required. 5. Tighten electrical connections to all servo-motor actuators, and test as applicable. 6. Check the heating or cooling valve (if present) for leakage around the stem or between the seat and disk. Repair or replace as needed. 7. Check velocity sensor tubing for cracks, tightness, or holes if applicable.

Predictive Maintenance Checkpoints

  1. Ensure that diagnostic tool has been installed properly. 2. Review all alarms associated with the diagnostic tool and any corrective actions that have been taken as a result. All alarming functions that were originally set up in the diagnostic tool should be responded to at the time of the alarm. 3. Review all trend data generated by the diagnostic tool where alarms are present. 4. Based on the results, repair or correct the terminal unit mechanical or control related deficiency as required by qualified staff. 5. Ensure that the diagnostic tool remains in operation and that operators are trained on its use.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Control drawings 3. Calibration tools 4. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Duct tape 6. Cleaning materials and equipment. Consult the MSDS for hazardous ingredients and proper PPE.
  2. Safety goggles

HVAC-TWR-01-03M Frequency : Quarterly
Cooling Tower, Cleaning
Application:

This applies to all cooling towers and evaporative condensers. Those located on the mezzanine or lower levels and near fresh air intakes are particularly important. Since cooling tower and evaporative condensers can become contaminated with microorganisms which are harmful.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform work before seasonal start-up (unless system has remained clean and free of bio-deposits), before seasonal shutdown, and quarterly during the cooling season. 3. If unit is not used year round drain and clean at least twice per year. 4. Review manufacturer’s instructions. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. times. 7. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 8. Ensure that there are safe and sturdy ladders and platforms to perform the lifting and cleaning required. 9. If biological growth is excessive, have a qualified water treatment specialist review your treatment program. 10. Refer to Table A for information on chlorine use. 11. If materials to be worked on, such as the wet deck panels (fill), are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan.

Check Points:

  1. Close building air intake vents within the vicinity of the cooling tower until the cleaning procedure is complete.
  2. Shut down, drain, and flush the cooling tower with water (check with state to determine if there are any restrictions on discharging the water). Isolate the cooling tower from the rest of the condenser water system where applicable. 3. Clean the wet deck, remove all debris, and dispose of properly. If the wet deck panels contains asbestos, it is considered hazardous waste. Refer to Appendix G for the Universal Waste Guide. 4. Inspect the tower, the tower basin and holding tank for sediment and sludge, and any biological growth. 5. Using low pressure water hose or brushes, clean the tower, floor, sump, fill, spray pans and nozzles and removable components such as access hatches, ball float, and other fittings until all surfaces are clean and free of loose material. Porous surfaces such as wooden and ceramic tile towers will require additional cleaning and brushing. Clean cracks and crevices where buildup is not reached by water treatment. 6. Clean all system strainers and strainer housings. 7. Remove drift eliminators and clean thoroughly using a hose, steam, or chemical cleanser. 8. Check fan and air inlet screens and remove any dirt or debris. 9. Reassemble components, and fill tower and cooling system with water. 10. Monitor the water pH and maintain pH within a range of 7.5 to 9.5. The pH can be monitored with litmus paper or a pH meter. 11. Add chemicals need to maintain water chemistry properties recommended by a water treatment consultant.

Perform the following if a more thorough disinfectant cleaning is needed; 1. Add a silicate-based low or non-foaming detergent as a dispersant at a dosage of 10-25 pounds per thousand gallons of water in the system. a. If the total volume of water in the system is not known, it can be estimated to be ten (10) times the recirculating rate (gallons per minute) or 30 gallons per ton of refrigeration capacity. b. The dispersant is best added by first dissolving it in water and adding the solution to a turbulent zone in the water system, such as the cooling tower basin near the pump suction. c. Contact a professional water treatment specialist for a dispersant which may be safely used without interfering with the operation of the system. 2. Add chlorine disinfectant to achieve 25 parts per million (ppm) of free residual chlorine. a. Maintain 10 ppm of free residual chlorine in water returning to the cooling tower for 24 hours. b. A swimming pool test kit may be used to monitor the chlorine. Follow the manufacturer’s instructions. Test papers such as those used to monitor restaurant sanitizing tanks may also be used.

  1. Monitor every 15 minutes for two hours to maintain the 10 ppm level. Add chlorine as needed to maintain this level. d. Two hours after the slug dose or after three measurements are stable at 10 ppm of free residual chlorine, monitor at two hour intervals to maintain the 10 ppm of free residual chlorine. e. Some kits cannot measure 10 ppm. In this case dilute the test sample with distilled water to bring it within the test set range. 3. After 24 hours, drain the system (check with state to determine if there are any restrictions on discharging the water). 4. Adjust bleed, float, central valve for desired water level. 5. Open any building air vents that were closed prior to the cleaning of the cooling tower. 6. Implement an effective routine treatment program for microbial control. 7. Document all maintenance and cleaning procedures by date and time. Record the brand name and the volume or weight of chemicals used.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C. 2. Pressure washer with hose and nozzle. 3. Cleaning tools and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 4. Appropriate chemicals and detergents (see standard card for details). Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Respirator with acid/gas/mist/HEPA filters. For other chemicals, refer to the Material Safety Data Sheet (MSDS) for recommended respirator). 6. Safety goggles. 7. Waterproof clothing (while working inside a wet tower). 8. Gloves (refer to MSDS on chemicals used for the type of gloves required). 9. Rubber boots if wet. 10. Litmus paper or pH meter. 11. Swimming pool test kit.

 

TABLE OF VALUES Chlorine Compounds Percent Available Weight per Chlorine 1000 gallons Hypochlorites Calcium, Ca(OCl)2 (HTH) 70 0.3 lb. Sodium, NaOCl Industrial grade 12-15 1.5 lb. Domestic grade (bleach) 3-5 5.25 lb. Potassium or sodium Chlorinated Isocyanurates 55-65 0.4 – 0.33 lb. 66-90 0.33 – 0.25 lb.

* Only those compounds commonly available in most communities are listed. Other appropriate compounds may be suggested by a water treatment specialist.

** These weights are approximate and are calculated to attain a free chlorine level of 25 ppm in a theoretical cooling tower system with no bio-deposits. If biodeposits are present, additional chlorine will be required. Calculate the volume of the entire cooling tower system, including the cooling tower water and the recirculating water; it should be several times more than the holding capacity of the tower.

*** Select only fast-release compounds, which are available in pellets, granular or extra granular forms in the 55-65% available chlorine category. Compounds with higher percentages of available chlorines (66-90%) release more slowly; use only the granular or extra granular forms.

HVAC-TWR-01-01Y Frequency : Annually
Cooling Tower, Maintenance
Application:

Cooling towers are used in an open loop cooling water system. The most common use of a cooling tower is to cool the condenser water of a chiller. A cooling tower is composed of a fan, spray nozzles, heat transfer media and a water basin (sump). Within the cooling tower the water is sprayed over a heat transfer media called fill, as the first stage of cooling. The second stage of cooling occurs when the cooling tower fan is turned on. This fan is either a constant speed fan, a two speed fan or a variable speed fan.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule performance of this PM activity prior to seasonal start-up. Consider the time needed to effect any required repairs. 5. Perform cleaning of the tower in accordance with PM standard 6. Clean cooling tower(s) before performing this PM activity. 7. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 8. Properly dispose of any debris, excess oil, and grease. 9. If materials to be worked on, such as the wet deck panels (tower fill media), are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan.

Children of this Piece of Equipment:

  1. Fan Motors 2. Variable Frequency Drives

Check Points:

  1. Exterior Structural:
  2. Inspect louvers for correct position and alignment, missing or defective items, and supports. b. Inspect casings and attaching hardware for leaks or defects. Check the integrity and secure attachment of the corner rolls. c. Inspect for loose or rotten boards on wood casings. Examine from the interior. Extensive damage may require replacement with fiberglass sheathing. d. Inspect condition of access doors and hinges. Repair as necessary. e. Inspect the distribution system including flange connectors and gaskets, caulking of headers on counterflow towers, deterioration in distribution basins, splash guards, and associated piping on crossflow towers. If configured with water troughs check boards for warpage, splitting, and gaps. f. Examine the drain boards for damage and proper drainage. Check the fasteners also. g. Inspect stairways including handrails, knee rails, stringers, structure and fasteners for rot, corrosion, security and acid attack. h. Shake ladders to verify security, and check all rungs. i. Check the security, rot, and corrosion on walkway treads. Check treads, walkways, and platforms for loose, broken, or missing parts. Tighten or replace as necessary. j. Ladders must be checked for corrosion, rot, etc. Verify compliance with Occupational Safety and Health regulations regarding height requirements. Check ladder security. k. Check fan decks and supports for decay, missing and broken parts, and gaps. Check the security. l. Fan cylinders must be securely anchored. Check fastening devices. Note any damaged, missing, or corroded items. Watch for wood rot and corrosion of steel. Verify proper tip clearance between the fan blade and interior of cylinder. Verify compliance with OSHA requirements regarding height. Check its condition. m. Apply protective coatings as needed on exterior surfaces. Be sure rust and dirt have been removed first. 2. Interior Structural: a. Inspect the distribution system piping for decay, rust, or acid attack. Check the condition and tightness of connections and branch arms. Observe spray pattern of nozzles if possible and note missing and defective nozzles. Note condition of the redistribution system under the hot water system. b. Inspect mechanical equipment supports and fasteners for corrosion. Wood structural members in contact with steel should be checked for evidence of weakness. Check condition of springs or rubber vibration absorption pads, including adjusting bolts, ferrous members, and rubber pads.
  3. Check valves and operating condition of fire detection system. Check for corrosion of pipes and connectors. Check wiring of any thermocouple installed. d. Check drift eliminators and supports. Remove any clogging debris. Replace missing blades. e. Inspect tower fill for damage, ice breakage, deterioration, and misplaced, missing, or defective splash bars. f. Examine interior structural supports. Test columns, girts, and diagonal wood members for soundness by striking with a rubber mallet. A high pitched, sharp sound indicates good wood, whereas a dull sound indicates soft wood. Probe rotted areas with a screw driver to determine extent of rot. Look for iron rot of metal fasteners in contact with wood. Check condition of steel internals. Check condition and tightness of bolts. g. Inspect the nuts and bolts in partitions for tightness and corrosion. Look for loose or deteriorated partition boards. Note if partitions are installed so as to prevent wind milling of idle fans. Make sure wind walls parallel to intake louvers are in position. Boards or transite members should be securely fastened. Check condition of wood or steel supports for rot and corrosion. h. Check wooden cold water basins for deterioration, warps, splits, open joints, and sound of wood. Inspect steel basins for corrosion and general condition. Inspect concrete basins for cracks, breaking joints, and acid attack. i. Check all sumps for debris, condition of screens, antiturbular plates, and freely operating drain valves. 3. Mechanical: a. Check alignment of gear, motor, and fan. b. Inspect fans and air inlet screens and remove any dirt or debris. 1). Check hubs and hub covers for corrosion, and condition of attaching hardware. 2). Inspect blade clamping arrangement for tightness and corrosion. c. Gear box 1). Clean out any sludge. 2). Change oil. Be sure gear box is full to avoid condensation. 3). Rotate input shaft manually back and forth to check for backlash. 4). Attempt to move the shaft radially to check for wear on the input pinion shaft bearing. 5). Look for excessive play of the fan shaft bearings by applying a force up and down on the tip of a fan blade. Note: Some output shafts have a running clearance built into them. d. Power transmission. 1). Check that the drive shaft and coupling guards are installed and that there are no signs of rubbing. Inspect the keys and set screws on the

drive shaft, and check the connecting hardware for tightness. Tighten or install as required. 2). Look for corrosion, wear, or missing elements on the drive shaft couplings. 3). Examine the exterior of the drive shaft for corrosion, and check the interior by tapping and listening for dead spots. 4). Observe flexible connectors of both ends of the shaft. 5). Inspect bearings, belts, and pulleys for excessive noise, wear or cracking, alignment, vibration, looseness, surface glazing, tension. Replace or repair as required. e. Check water distribution. Adjust water level and flush out troughs if necessary. Check all piping, connections, and brackets for looseness. Tighten loose connections and mounting brackets. Replace bolts and braces as required. f. Check nozzles for clogging and proper distribution. g. Inspect keys and keyways in motor and drive shaft. 4. Electrical: a. Check electric motor for excessive heat and vibration. Lubricate all motor bearings as applicable. Remove excess lubricant. b. Inspect fused disconnect switches, wiring, conduit, and electrical controls for loose connections, charred or broken insulation, or other defects. Tighten, repair, or replace as required. c. Remove dust from air intakes, and check for corrosion. Check TEFC motors for conditions of air passages and fans. d. If there is a drain moisture plug installed, see if it is operational. e. Check amps and volts at operating loads, recommend pitching of fan blades to compensate. f. Look for corrosion and security of mounting bolts and attachments. 5. Winterizing: (if applicable) If Cooling Tower is seasonal. a. Check that all electrical energy switches condenser pumps, fans, sump heaters have been de-energized and tagged out. b. Check that tower is drained, water make-up has been secured at an interior building location tagged off and exterior line is drained and left open to prevent freezing. c. Check that tower drains are locked in the open position and tagged. d. If there are piping heaters, check to make sure they are energized and working. e. Check that tower supply and return lines have been drained down to a point inside the building where water in them will not freeze and that the water has been pre treated to prevent corrosion and bacteria growth. f. Check that any water treatment pumps that serve the cooling tower system have been secured.

  1. Drain and secure cooling tower filtering systems that are exposed to freezing conditions.

Recommended Tools, Materials, and Equipment: 1. Tool Group C 2. Protective coating, brushes, solvent, etc. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Manufacturer approved lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 4. Cleaning tools and materials. Consult the MSDS for hazardous ingredients and proper PPE. 5. Respirator. 6. Safety goggles 7. Work gloves 8. Ladders of appropriate size constructed according to OSHA/ANSI standards or scaffolding. Check ladder for defects. Do not use defective ladders. 9. Amp probe and volt meter. 10. High pressure washer.

HVAC-UHT-01-01Y Frequency: Annually
Unit Heater, Steam or Hot Water
Application

Unit heaters are usually used to heat otherwise unconditioned spaces These units can be horizontal or vertical and are usually heating only.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Check valve for full stroke operation in both directions. 2. Check valve for signs of abnormal wear and leaks. Replace packing if needed. 3. Clean the coil with vacuum cleaner. 4. Comb the fins as needed. 5. Clean all fans and motors. 6. Check operation of controls and safeties. 7. Lubricate as required. 8. Check all motors, belts, pulleys, shafts, etc. for alignment. 9. Treat all rusted areas with rust inhibitor and touch up paint.

Recommended Tools and Equipment:

  1. Tool Group A and B 2. Vacuum cleaner and attachments 3. Rust inhibitor, paint, brushes. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). Consult the MSDS to ensure that the paint lead level is 0.06% or less. 4. Cleaning and patching materials. Consult the MSDS for hazardous ingredients and proper PPE.

 

HVAC-UHT-02-01Y Frequency: Annually
Unit Heater, Gas or Oil
Application

Unit heaters are usually used to heat otherwise unconditioned spaces These units can be horizontal or vertical and are usually heating only.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection.” 4. Schedule shutdown with operating personnel. 5. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 6. Coordinate other related preventive maintenance items, such as, burners, fuel tank, humidifier, or other equipment.

Check Points:

  1. Remove access panels if applicable. 2. Check the fire box liner or refractory for cracks and leaks. 3. Check oil pump for leaks. Repair or replace as needed (oil units only) 4. Change the oil filter and oil spry nozzles (oil units only). 5. Check all gas lines for leaks. Repair as needed. 6. Check smoke stack for obstructions, leaks, etc. 7. Clean bottom of smoke stack (breaching). 8. Clean all fans and motors. 9. Check operation of controls and safeties. 10. Lubricate as required. 11. Replace access panels if removed. 12. Check all motors, belts, pulleys, shafts, etc. for alignment. 13. Treat all rusted areas with rust inhibitor and touch up paint.

Recommended Tools and Equipment:

  1. Tool Group A and B 2. Vacuum cleaner and attachments
  2. Rust inhibitor, paint, brushes. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). Consult the MSDS to ensure that the paint lead level is 0.06% or less. 4. Cleaning and patching materials. Consult the MSDS for hazardous ingredients and proper PPE. 5. Respirator, goggles and gloves. 6. Flue and stack cleaning brushes.

 

HVAC-VLV-01-01Y Frequency: Annually
Valve, Pneumatic or DDC Operated
Application

This standard applies to all valves which are controlled through the BAS system and operated with an electric motor, pneumatic actuator or electric device such as a solenoid.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan.

Parent of this Piece of Equipment

Air handlers, chillers, cooling towers

Check points:

  1. Clean unit and make visual examination of all parts. 2. Operate from limit to limit. Observe operation, look for binding, sluggishness, action of limits, etc. 3. Determine if valve seats and holds properly. 4. Check condition of packing. 5. Apply graphite to moving parts of valve. For electronic motors complete steps 6 to 10. For pneumatic actuators perform steps 11 to 18.

DDC:

  1. Check to see that the operating control sensor activates the valve per design specifications. If not, recalibrate or replace the operating control sensor with the same temperature range sensor. 2. Inspect actuator for free movement.
  2. Tighten electrical connections to all servo-motor actuators, and test as applicable. 4. Check all voltages or resistance at the actuator. Refer to manufacturer’s specifications for values. 5. Skip to step 19.

Pneumatic:

  1. Inspect actuator diaphragm for leaks by performing a pressure test of the diaphragm. 2. Check the actuator spring range. Replace spring, adjust pilot positioner, or add pilot positioner as needed. 3. If pneumatic actuator does not stroke properly, correct sticking valve stem or binding linkage. Replace or repair the diaphragm or actuator if necessary. 4. Inspect for air leaks around actuator and in the air line between controller and pneumatic actuator. 5. Inspect operating control thermostat and/or pressure sensor for proper location and check main and branch air lines at thermostat for crimps, breaks, etc. Repair or replace if needed. 6. Check all inline filters for oil and/or moisture. Replace as needed. 7. Check all installed pressure gages for proper range and operability as applicable. Replace if needed. 8. Check to see that the operating control thermostat activates the actuator per design specifications. If not, recalibrate the operating control thermostat. 9. Clean up work site.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

HVAC-WTM-01-01M Frequency: Monthly
Water Treatment Standard
Application:

This is applicable to both condenser water and chilled water systems. Included are open recirculating systems, closed systems, air washers, and sprayed coil unit and evaporative condensers. Once through systems are not applicable.

Note: This maintenance standard does not eliminate daily testing where it is an established policy.

Special Instructions:

  1. Chemicals must comply with the Environmental Protection Agency (EPA) regulations and handled in accordance with occupational safety requirements. Employ personal protection against corrosive or hazardous treatment chemicals as appropriate. 2. Be familiar with the Material Safety Data Sheets of any chemicals used in the water treatment program. 3. Water treatment specialists must be properly trained. 4. Water treatment must be based on proven standard engineering practices. Treatment methods that claim mysterious magnetic or catalytic forces shall not be used. 5. Follow treatment as directed by manufacturer or water treatment company. 6. Maintenance includes chemicals, chemical feeding, maintaining proper water conditions, controlling bleed off, protecting idle equipment, and recordkeeping. 7. Select water treatment methods which protect the life of equipment, maximize heat transfer, and minimize scale, corrosion, solid matter buildup, algae, fungi, biological growth, and water usage. Alternate biocides. Changes to higher dosage levels may be required to control growth. 8. Ensure chemicals are properly stored, test equipment clean, and that chemicals have not passed expiration date. 9. Special attention must be paid to wooden towers and solar heating systems which can be more difficult to properly maintain. 10. Physical inspections of towers and piping systems are to be made to determine water treatment effectiveness. 11. Maintain records and test results.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Rubber gloves, face shield and apron.

HVAC-WTM-03-06M Frequency: Semi-annually
Chemical Feeder
Application:

This is applicable to both condenser water and chilled water systems. Included are open recirculating systems, closed systems, air washers, and sprayed coil unit and evaporative condensers. Once through systems are not applicable. Note: This maintenance standard does not eliminate daily testing where it is an established policy.

Special Instructions:

  1. Chemicals must comply with the Environmental Protection Agency (EPA) regulations and handled in accordance with occupational safety requirements. Employ personal protection against corrosive or hazardous treatment chemicals as appropriate. 2. Be familiar with the Material Safety Data Sheets of any chemicals used in the water treatment program. 3. Water treatment specialists must be properly trained. 4. Water treatment must be based on proven standard engineering practices. Treatment methods that claim mysterious magnetic or catalytic forces shall not be used. 5. Follow treatment as directed by manufacturer or water treatment company. 6. Maintenance includes chemicals, chemical feeding, maintaining proper water conditions, controlling bleed off, protecting idle equipment, and recordkeeping. 7. Select water treatment methods which protect the life of equipment, maximize heat transfer, and minimize scale, corrosion, solid matter buildup, algae, fungi, biological growth, and water usage. Alternate biocides. Changes to higher dosage levels may be required to control growth. 8. Ensure chemicals are properly stored, test equipment clean, and that chemicals have not passed expiration date. 9. Special attention must be paid to wooden towers and solar heating systems which can be more difficult to properly maintain. 10. Physical inspections of towers and piping systems are to be made to determine water treatment effectiveness. 11. Maintain records and test results.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Rubber gloves, face shield and apron

HVAC-WTM-04-03M Frequency: Quarterly
Water Treatment, Chemical Free
Application

This standard is intended for maintaining chemical free water treatment systems such as eH20 and Flozone. Each manufacturer has specific requirements; manufacturer recommendations shall be followed. This standard summarizes the typical tasks found in manuals for chemical free water treatment systems.

Special Instructions:

  1. Manufacturer specific guidelines shall be followed. This standard only summarizes typical quarterly tasks and shall not be considered inclusive of all necessary activities.

Parent of this Piece of Equipment

Cooling Tower

Check points:

  1. Per manufacturer recommendations, all sensors and probes shall be cleaned monthly. Follow manufacturer specific procedures for cleaning each probe. Typical probes include pH probes and conductivity probes; typical sensors include Oxygen percentage. 2. Per manufacturer recommendations, all filters shall be inspected, cleaned and replaced if necessary (if filter feels wet to the touch). Follow manufacturer specific procedures for inspecting, cleaning and replacing filters. Note: it may be necessary to perform a manual backwash, consult manufacturer specifications and recommendations. 3. Per manufacturer recommendations, desiccant indicators shall be inspected. Follow manufacturer specific procedures for verifying moisture content: the manufacturer shall be notified if high moisture content is present. 4. Per manufacturer recommendations, a visual inspection of the equipment shall be performed, with specific focus on loose fittings or other notable damage. 5. Per manufacturer recommendations, sensors and probes shall be calibrated. Follow manufacturer specific procedures for calibrating sensors. 6. Per manufacturer recommendations, coupons shall be changed out (this is manufacturer specific). Follow manufacturer specific procedures for replacing coupons.

 

Recommended Tools, Materials, and Equipment: Consult manufacturer recommendations

HVAC-WTM-04-01Y Frequency: Annually
Water Treatment, Chemical Free
Application

This standard is intended for maintaining chemical free water treatment systems such as eH20 and Flozone. Each manufacturer has specific requirements; manufacturer recommendations shall be followed. This standard summarizes the typical tasks found in manuals for chemical free water treatment systems.

Special Instructions:

  1. Manufacturer specific guidelines shall be followed. This standard only summarizes typical annual tasks and shall not be considered inclusive of all necessary activities.

Parent of this Piece of Equipment

Cooling Tower

Check points:

  1. Per manufacturer recommendations, check hours of operation of the devices (i.e. purifier, oxygen concentrator). If run hours exceed 8,000 hours, devices shall either be re-built or replaced. Consult manufacturer recommendations.

Recommended Tools, Materials, and Equipment: Consult manufacturer recommendations

KTCH-DSH-01-03M Frequency: Quarterly
Dishwashing Machine
Application

This maintenance standard applies to electric and steam operated cafeteria kitchen dishwashing equipment.

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. Notify cafeteria operator and get permission prior to performing all maintenance. 3. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 4. Review manufacturer’s instructions. 5. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 6. De-energize, lock out, and tag electrical circuits and fuel service. 7. Follow all instructions of Material Safety Data Sheets for lubricants and cleaners.

Check points:

  1. Check with operator or manager for any deficiencies, verify cleaning program. 2. Check motor and bearings for excessive noise, vibration, and overheating. Clean motor ventilator openings 3. Check electric insulators, connection and wiring, including inside access panels and junction boxes, and final connections. Tighten loose connections. 4. Test electrical controls, signal lights, timer, and OFF/ON switches. Test timer and switches. 5. Examine all pump suction and discharge connections for leakage, adjust packing nuts as required. 6. Check temperature regulator and adjust or calibrate as required. 7. Check thermostatic control solenoid valve for a minimum of 100° prewash, 140° for wash, and 140° or 180°F for final rinse. (Low temp machines at 140°F.) 8. Check operation of wash and rinse spray mechanism for spray coverage and drainage.
  2. Inspect soap and spray solution feeder lines; clean as necessary. 10. Inspect water/steam lines and fittings for leaks; tighten fittings as necessary. 11. Check packing glands on wash, rinse, and drain valves; add or replace packing as required. Tighten nuts, bolts, and screws. 12. Check lubricant in gear case; add manufacturer’s recommended oil if required. 13. Inspect splash curtain for tears, clearance, and water tightness; adjust if required. 14. Check proper operation of solenoid valve and float in fill tank; adjust as required. Check and repair insulation as needed. 15. Check proper operation of micro-switch. 16. Check doors for operations of chains and counterweights, warping, alignment and water tightness. Replace door gaskets if needed 17. Clean lime off thermostatic probe and heating elements. Drain booster heater to remove scale from the bottom.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-FRY-01-03M Frequency: Quarterly
Fryer
Application

This maintenance standard applies to electric or gas fired cafeteria kitchen fryer equipment, including deep fat, counter-top, drop-in, and free standing varieties.

Special Instructions:

  1. Notify cafeteria operator and get permission prior to performing all maintenance. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. If any safety deficiencies are found which could cause injury or damage, including tank leaks, notify the cafeteria operator immediately and secure the equipment from further operations. 4. Review manufacturer’s instructions. 5. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 6. De-energize, lock out, and tag electrical circuits and fuel service.

Check points:

  1. Check pilot and flame on gas operated unit; adjust as necessary. 2. Check all gas connections for tightness and for leaks. 3. Check all electrical connections and wiring for tightness and signs of overheating. 4. Check thermostat; calibrate, if necessary. 5. Check basket raising mechanism. 6. Check basket/rack for bends, breaks, or defects; straighten bends or repair as necessary. 7. Check operation of unit. 8. Check flue for proper draft or obstructions. 9. If electric model, check heating elements by amperage draw and check against nameplate. 10. Check nuts, bolts, and screws for tightness; tighten or replace as necessary. 11. Verify that drop-in units must have flange to counter seal. 12. Clean interior walls and elements to obtain maximum heat transfer. 13. Inspect grease compartment. 14. Lubricate gas valves.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-GRL-01-03M Frequency: Quarterly
Grill
Application

This maintenance standard applies to electric operated or gas fired cafeteria kitchen grill equipment, including flat-top, open grill, drop-in, or free standing varieties.

Special Instructions:

  1. Notify cafeteria operator and get permission prior to performing all maintenance. 2. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 3. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 4. Review manufacturer’s instructions. 5. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 6. De-energize, lock out, and tag electrical circuits and fuel service.

Check points:

  1. Check with operator to verify cleaning program 2. Check with operating or area personnel for any deficiencies. 3. Check nuts, bolts, and screws for tightness; tighten or replace as required. 4. Inspect grease trough, drip tray, splash guard, and surface condition. 5. Examine gas utility supply line, valve packing, tighten fittings as required. 6. Examine/clean burners and elements. 7. On gas operated units, check pilot and gas burners for uniform flame; adjust as required. 8. On electrically operated units, check switches, connections, and wiring for loose or overheated conditions. 9. Check calibration of thermostats; calibrate if required 10. Check flue for proper draft or obstructions. 11. Lubricate gas valves. 12. Check elements to obtain maximum heat transfer take amperage measurement and check against nameplate. 13. Examine burner guards, grates, covers or cook top surfaces for cracks or damage.
  2. Check all controls, mechanisms for proper operation; adjust as required. 15. Check electric power line condition, switch, disconnect, etc.; or check condition of gas supply, valves, regulators, and inspect pilot, check for Gas leaks. 16. Examine control knobs and indicating lights; adjust/replace as required.

Recommended Tools, Materials, and Equipment:

1.Tool Group A

KTCH-ICM-01-03M Frequency: Quarterly
Ice Cream maker & Shake Maker
Application

This maintenance standard applies to cafeteria kitchen ice cream and shake maker equipment.

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. Review manufacturer’s instructions. 4. Notify cafeteria operator and get permission prior to performing all maintenance. 5. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 6. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 7. De-energize, lock out, and tag electrical circuits. 8. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 9. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 10. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 11. Recover, recycle, or reclaim the refrigerant as appropriate. 12. If appliance is disposed, follow regulations concerning removal of refrigerants and disposal of the appliance. 13. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 14. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 15. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and to all labels on refrigerant containers.

 

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Examine the differential pressure pump. Check the “O” ring seal and replace if defective. 3. Test for proper soft serve ice cream texture. 4. Inspect wash kit faucet (single lever swing spout). 5. Check beater motor, clean and grease assembly. 6. Check refrigerant charge. 7. Check machine amperage draw against nameplate. 8. Inspect gear reduce oil level and lubricate fan motor. 9. Examine pulley alignment, belt condition, and belt tension.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-ICE-02-03M Frequency: Quarterly
Ice Maker
Application

This maintenance standard applies to cafeteria kitchen ice makers, including storage and dispenser types.

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. Review manufacturer’s instructions. 4. Notify cafeteria operator and get permission prior to performing all maintenance. 5. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 6. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 7. De-energize, lock out, and tag electrical circuits. 8. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 9. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 10. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 11. Recover, recycle, or reclaim the refrigerant as appropriate. 12. If appliance is disposed, follow regulations concerning removal of refrigerants and disposal of the appliance. 13. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 14. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 15. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and to all labels on refrigerant containers. 16. Only approved cleaning chemicals shall be used.

 

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Visually check for refrigerant, oil and water leaks. 3. Inspect ice condition/size. 4. Check and tighten any loose screw-type electrical connections. 5. Check all controls; adjust if necessary. 6. Examine water connection; open and close water valve; test ice dispensing valve and (door) metering adjustment. 7. Check and clear ice machine draining system (drain vent, strainer and trap). 8. Examine condition of bin doors-closure, hinges, gaskets, handles and ease of slide; lubricate as required. Check storage bin condition. 9. Clean motor, compressor, and condenser coil.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

 

KTCH-KTL-01-06M Frequency: Semi-annually
Kettle
Application

This maintenance standard applies to cafeteria kitchen kettles, including steam, electric, gas, and tilting, (braising pan).

Special Instructions:

  1. Preventive maintenance services, should be performed by a qualified manufacturer’s service representative. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. Review manufacturer’s instructions. 4. Notify cafeteria operator and get permission prior to performing all maintenance. 5. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations.

Check points:

  1. Check with operating or area personnel for any deficiencies; verify the cleaning program. 2. Examine utility supply line, valve packing, specialties, and insulation. 3. Inspect safety pressure valve. 4. Lubricate tilting gear mechanism and trunnion bearings, if applicable. 5. Calibrate thermostats as required. 6. Check and replace leaking packing washers. 7. Examine water supply control and fill valve. 8. Inspect temperature gauge, lid hinge and condition. Lubricate hinge. 9. Test timer, switches, pilot light. 10. Check for adequate steam pressure to unit. 11. Examine condensate trap, thermostatic trap, and regulator. 12. Lubricate valves 13. Tighten all screws in electrical wiring connections, i.e., panels, junction boxes, final connections, etc. 14. Check elements to obtain maximum heat transfer. 15. Examine handles, knobs and controls for tightness and safe condition. 16. NOTE: Remaining checks pertain to gas units. 17. Check for gas leaks
  2. Check and clean burner orifices. 19. Clean and adjust pilot light assembly. 20. Check air shutters to make sure air/gas mixture is correct. 21. Check flue for obstructions and proper draft.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

 

KTCH-OVN-01-03M Frequency: Quarterly
Oven
Application

This maintenance standard applies to cafeteria kitchen ovens, including wet/dry steam, char broiler, convection or baking.

Special Instructions:

  1. Preventive maintenance services, should be performed by a qualified manufacturer’s service representative. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. Review manufacturer’s instructions. 4. Notify cafeteria operator and get permission prior to performing all maintenance. 5. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations.

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Check all controls, mechanisms for proper operation; adjust as required. 3. Examine utility supply line, piping, valve packing, specialties, and insulation; look for leaks. 4. Check electric power line condition, switch, disconnect, etc.; or check condition of gas supply, valves, regulators, and inspect pilot, check for Gas leaks. 5. Check to ensure ovens and oven racks are level 6. Check gaskets and seals; check doors for tightness and warping; lubricate hinges and repair as necessary. 7. Examine handles, knobs and controls for tightness and safe condition.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

 

KTCH-OVN-01-06M Frequency: Semi-annually
Oven
Application

This maintenance standard applies to cafeteria kitchen ovens, including wet/dry steam, char broiler, convection or baking.

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. Review manufacturer’s instructions. 4. Notify cafeteria operator and get permission prior to performing all maintenance. 5. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations.

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Check all controls, mechanisms for proper operation; adjust as required. 3. Examine utility supply line, piping, valve packing, specialties, and insulation; look for leaks. 4. Check electric power line condition, switch, disconnect, etc.; or check condition of gas supply, valves, regulators, and inspect pilot, check for Gas leaks. 5. Check and clean fan blades for convection ovens. 6. Check to ensure ovens and oven racks are level. 7. Check the operation of thermostats; calibrate if required 8. Clean and adjust gas burners. 9. Check safety pilot and solenoid. 10. Clean and adjust pilot light assembly. 11. Check flue for proper draft or obstructions. 12. Lubricate gas valves. 13. Tighten all electrical connections in panels, junction boxes, final connections, etc. 14. Clean interior walls and elements to obtain maximum heat transfer.
  2. Check gaskets and seals; check doors for tightness and warping; lubricate hinges and repair as necessary. 16. Examine handles, knobs and controls for tightness and safe condition.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-RFG-01-03M Frequency: Quarterly
Walk –In Refrigerators/ Freezers
Application

This maintenance standard applies to cafeteria kitchen refrigerators/freezers (walk-in units).

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. Review manufacturer’s instructions. 3. Notify cafeteria operator and get permission prior to performing all maintenance. 4. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 5. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 6. De-energize, lock out, and tag electrical circuits. 7. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 8. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 9. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 10. Recover, recycle, or reclaim the refrigerant as appropriate. 11. If appliance is disposed, follow regulations concerning removal of refrigerants and disposal of the appliance. 12. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 13. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 14. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and to all labels on refrigerant containers.

Parent of this Piece of Equipment

None

 

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Verify indicator light on; check compartment temperature. 3. Examine evaporator for proper clearances/slope and air flow. 4. Examine condensate drain and drain heating. 5. Examine handles, hinges and tightness of door closure. 6. Examine safety door release and fan shut down safety switch. 7. Inspect lighting for burnt out lamps. 8. Inspect door gaskets for damage and proper fit; adjust gaskets as required and lubricate hinges with food grade oil. 9. Check door gasket heater. 10. Check box floor for water or ice accumulation. 11. Check box for excessive ice build- up and open seams. 12. Verify defrost cycle and timer operation.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-RFG-01-06M Frequency:Semiannual
Walk –In Refrigerators/ Freezers
Application

This maintenance standard applies to cafeteria kitchen refrigerators/freezers (walk-in units).

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. Review manufacturer’s instructions. 3. Notify cafeteria operator and get permission prior to performing all maintenance. 4. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 5. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 6. De-energize, lock out, and tag electrical circuits. 7. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 8. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 9. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 10. Recover, recycle, or reclaim the refrigerant as appropriate. 11. If appliance is disposed, follow regulations concerning removal of refrigerants and disposal of the appliance. 12. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 13. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 14. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and to all labels on refrigerant containers.

Parent of this Piece of Equipment

None

 

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Verify indicator light on; check compartment temperature. 3. Examine evaporator for proper clearances/slope and air flow. 4. Examine handles, hinges and tightness of door closure. 5. Examine safety door release and fan shut down safety switch. 6. Inspect lighting for burnt out lamps. 7. Check starter panels and controls for proper operation, burned or loose contacts, and loose connections. 8. Clean evaporator coil, evaporator drain pan, blowers, fans, motors, and drain piping as required; lubricate motor(s). 9. Inspect defrost systems for proper operation, including timer; adjust as required. Have automatic defrosters adjusted as required so freezer will defrost during “Off Peak” hours 10. Check operation of thermostats; calibrated as required. 11. Check coil superheat and adjust to manufacturers recommendations. 12. Inspect and service all electric motors. 13. Inspect door gaskets for damage and proper fit; adjust gaskets as required and lubricate hinges with food grade oil. 14. Check door gasket heater. 15. Check box floor for water or ice accumulation. 16. Check box for excessive ice build- up and open seams.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-RFG-02-03M Frequency: Quarterly
Reach – in/ pass-thru Refrigerator/Freezers
Application

This maintenance standard applies to cafeteria kitchen refrigerators/freezer (Reach-In, Pass –Thru, Display case) Types

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. Review manufacturer’s instructions. 3. Notify cafeteria operator and get permission prior to performing all maintenance. 4. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 5. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 6. De-energize, lock out, and tag electrical circuits. 7. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 8. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 9. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 10. Recover, recycle, or reclaim the refrigerant as appropriate. 11. If appliance is disposed, follow regulations concerning removal of refrigerants and disposal of the appliance. 12. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 13. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 14. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and to all labels on refrigerant containers.

Parent of this Piece of Equipment

None

 

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Verify indicator light on; check compartment temperature. 3. Examine evaporator for proper clearances/slope and air flow. 4. Examine condensate drain and drain heating. 5. Examine handles, hinges and tightness of door closure. 6. Examine safety door release and fan shut down safety switch. 7. Inspect lighting for burnt out lamps. 8. Inspect door gaskets/doors for damage and proper fit; adjust gaskets as required and lubricate hinges with food grade oil. 9. Check door gasket heater. 10. Check box floor for water or ice accumulation. 11. Check box for excessive ice build- up and open seams. 12. Verify defrost cycle and timer operation, if applicable. 13. Clean condenser coil.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-RFG-02-06M Frequency: Semiannual
Reach – in/ pass-thru Refrigerator/Freezers
Application

This maintenance standard applies to cafeteria kitchen refrigerators/freezer (Reach-In, Pass –Thru, Display case) Types

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. Review manufacturer’s instructions. 3. Notify cafeteria operator and get permission prior to performing all maintenance. 4. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations. 5. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 6. De-energize, lock out, and tag electrical circuits. 7. Comply with the latest provisions of the Clean Air Act and Environmental Protection Agency (EPA) regulations as they apply to protection of stratospheric ozone. 8. No intentional venting of refrigerants is permitted. During the servicing, maintenance, and repair of refrigeration equipment, the refrigerant must be recovered. 9. Whenever refrigerant is added or removed from equipment, record the quantities on the appropriate forms. 10. Recover, recycle, or reclaim the refrigerant as appropriate. 11. If appliance is disposed, follow regulations concerning removal of refrigerants and disposal of the appliance. 12. If materials containing refrigerants are discarded, comply with EPA regulations as applicable. 13. Refrigerant oils to be treated as hazardous waste. Refer to Appendix G for the Universal Waste Guide. 14. Closely follow all safety procedures described in the Material Safety Data Sheet (MSDS) for the refrigerant and to all labels on refrigerant containers.

Parent of this Piece of Equipment

None

 

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Verify indicator light on; check compartment temperature. 3. Examine evaporator for proper clearances/slope and air flow. 4. Examine handles, hinges and tightness of door closure. 5. Examine safety door release and fan shut down safety switch. 6. Inspect lighting for burnt out lamps. 7. Check starter panels and controls for proper operation, burned or loose contacts, and loose connections. 8. Clean evaporator coil, evaporator drain pan, blowers, fans, motors, and drain piping as required; lubricate motor(s). 9. Clean condenser coil and condensing unit section. 10. Clean and inspect defrost evaporation trays/pans. 11. Inspect defrost systems for proper operation, including timer; adjust as required. Have automatic defrosters adjusted as required so freezer will defrost during “Off Peak” hours 12. Check operation of thermostats; calibrated as required. 13. Check coil superheat and adjust to manufacturers recommendations. 14. Inspect and service all electric motors. 15. Inspect door gaskets for damage and proper fit; adjust gaskets as required and lubricate hinges with food grade oil. 16. Check door gasket heater. 17. Check box floor for water or ice accumulation. 18. Check box for excessive ice build- up and open seams.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-RNG-01-03M Frequency: Quarterly
Range
Application

This maintenance standard applies to cafeteria kitchen ranges, including electric, or gas; open burner, hot plate, and griddle top. For oven base, see oven guide.

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. Review manufacturer’s instructions. 4. Notify cafeteria operator and get permission prior to performing all maintenance. 5. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations.

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Check all controls, mechanisms for proper operation; adjust as required. 3. Examine utility supply line, piping, valve packing, specialties, and insulation; look for leaks. 4. Check electric power line condition, switch, disconnect, etc.; or check condition of gas supply, valves, regulators, and inspect pilot, check for Gas leaks. 5. Examine burner guards, covers or cook top surfaces for cracks or damage. 6. Examine handles, knobs and controls for tightness and safe condition.

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

KTCH-RNG-01-06M Frequency: Semi-annually
Range
Application

This maintenance standard applies to cafeteria kitchen ranges, including electric, or gas; open burner, hot plate, and griddle top. For oven base, see oven guide.

Special Instructions:

  1. Preventive maintenance services should be performed by a qualified manufacturer’s service representative. 2. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 3. Review manufacturer’s instructions. 4. Notify cafeteria operator and get permission prior to performing all maintenance. 5. If any safety deficiencies are found which could cause injury or damage, notify the cafeteria operator immediately and secure the equipment from further operations.

Check points:

  1. Check with operating or area personnel for any deficiencies; verify cleaning program. 2. Check all controls, mechanisms for proper operation; adjust as required. 3. Examine utility supply line, piping, valve packing, specialties, and insulation; look for leaks. 4. Check electric power line condition, switch, disconnect, etc.; or check condition of gas supply, valves, regulators, and inspect pilot, check for Gas leaks. 5. Examine burner guards, covers or cook top surfaces for cracks or damage. 6. Clean and adjust gas burners and pilot light assembly. 7. Clean electric heating elements and check amperage against nameplate. 8. Examine handles, knobs and controls for tightness and safe condition. 9. Check automatic burner lighters and safety controls. 10. Lubricate gas valves. 11. Check electric power line condition (switch, disconnect, etc.), or check condition of gas supply, valves, regulators.

 

Recommended Tools, Materials, and Equipment:

  1. Tool Group A

MHDL-CRN-01-03M Frequency: Quarterly
Crane, Electric
Application:

This standard card applies to electric driven cranes mounted on overhead tracks, mounted on walls or mounted on the floor. It is not to be applied to hydraulic lifts.

Special Instructions:

  1. Coordinate related PM items at this time, i.e. ELEC-MOT-01, ELEC-MCC-03 Motor Control Center, etc. 2. Review manufacturer’s instructions for operation and maintenance. 3. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources.” 4. Shut off electrical power, tag and lockout of service. 5. The height of the crane may require the use of scaffolding or hydraulic lifts to accomplish this PM.

Check Points:

  1. Inspect trolley wheels and track for condition. 2. Check braking system, including any hydraulic reservoirs. 3. Inspect all structural features including framing, supports, bracing, anchors, etc. 4. Scrape, wire brush, treat with rust inhibitor and paint all rusted or bare metal areas. 5. Inspect cables for worn, frayed or broken strands. Adjust tension if necessary. 6. Inspect pulleys, sheaves, chains, etc. for alignment and wear. 7. Check operation of controls, including limit switches. 8. Lubricate in accordance with manufacturer’s recommendations. 9. Check oil in gear case, add or replace in accordance with manufacturer’s instructions. 10. Remove tags and lockout, restore power. 11. Test operation.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B.

MHDL-DMW-01-03M Frequency: Quarterly
Dumbwaiter
Special Instructions:

  1. Review manufacturer’s Instructions.

Check points:

  1. Inspect and clean hoistway. Remove trash from pit. 2. Examine sheaves, cable, counterweight, etc. Look for loose bolts, misalignment, weak or improper cable fasteners, etc. Make safety or reliability tests if anything questionable is found. 3. Examine car for structural features, appearance, need for attention, surface condition, condition of paint, etc. 4. On hand powered units, examine cable pulls for loose strands, sharp edges, rough surfaces, or other potential hazards. 5. Inspect power unit, motor controls, and all accessories. 6. Check all indicators, lights, bull’s-eyes, controls, safety devices, etc. 7. Check door gate and interlocks. 8. Comply with lubrication schedule. 9. Check operating voltage and running amps of hoist motor. 10. Verify that safety devices are operating properly before putting dumbwaiter back in service. 11. Clean up and remove all debris.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Safety signs

MHDL-HST-01-01Y Frequency: Annually
Chain Hoist and Trolley
Application:

This standard applies to manually operated lifts and hoists.

Special Instructions:

  1. Review manufacturer’s instructions.

Check Points:

  1. Test operate and note condition, including all controls. 2. Check all hydraulic hoses, cylinders, and connections for leaks and condition. Tighten connections or replace hoses to correct leaks. 3. Check mechanical and hydraulic brake systems, including master cylinder fluid levels, and correct as required. 4. Lubricate all zerk fittings and any other points specified by the manufacturer. 5. Check all lift arms, stabilizers, locks, chains, cables, channels, and structure for condition and wear. 6. Where equipped with a battery, check charge, electrolyte level, and condition of cables and terminals.

Recommended Tools, Materials, and Equipment:

  1. Standard tool group 2. Cleaning materials and equipment. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Hydraulic hose 4. Brake fluid 5. Grease gun, grease, oil 6. Hydrometer

MHDL-HST-02-01Y Frequency: Annually
Hoist, Electric
Application:

This standard card applies to electric hoists that are installed in a fixed position or mounted on an overhead rail system. It does not apply to the larger motorized electric cranes.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources.” 3. De-energize, tag, and lock out circuit. 4. Take appropriate safety precautions for working at heights.

Check Points:

  1. Inspect cables and pulleys. 2. Lubricate as recommended by the manufacturer. 3. Check oil in gear box and add as required. 4. Restore power, test and operate. 5. Check and adjust brake if required. 6. Remove tags from power source.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic. 2. Grease gun, grease, oil. 3. Lift platform, scaffolding, or ladder constructed according to OSHA/ANSI standards as required. Check ladder for defects. Do not use defective ladders.

MHDL-HST-03-01Y Frequency: Annually
Hoist, Lighting
Application:

This standard card applies to electric hoists used to raise, lower, and support large decorative lighting fixtures in auditoriums and conference rooms.

Special Instructions:

  1. Schedule all hoists to be maintained at one time. 2. Schedule hoists to coincide with PM on chandelier.

Check Points:

  1. Check supply voltage. 2. Check connections at disconnect, starter, and reversing switch. 3. Check motor mounting frame and bolts, tighten if necessary. 4. Check hoist support, bracket lubricant, and pivot point. 5. Check sprockets and roller chain, lubricate as needed. 6. Check oil in gear motor, change if required. 7. Check and clean motor, lubricate as needed. 8. Check oil in hoist, change if required. 9. Remove safety bar and inspect for defects. Replace if required. 10. Inspect chain for wear, rust, and weak spots. Coat with oil or grease. 11. Test

Recommended Tools, Materials, and Equipment:

  1. Tool group A 2. Cleaning tools and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 4. Multimeter

MHDL-LFT-01-06M Frequency: Semi-annually
Lift, Electric, Stage Screen

Application:

This standard card applies to hoisting equipment such as is used for the understage movie screen located in the Departmental Auditorium in Washington, DC This compares to the hoisting equipment used for an electric elevator, but is smaller.

Special Instructions:

  1. Review manufacturer’s instructions.

Check Points:

  1. Controller a. Clean with blower or vacuum. b. Check switches, relays, timers, resistors, contacts, connections, fuses, and overload settings. c. Replace worn parts and adjust for proper operation. 2. Brakes a. Observe operation. b. Inspect drum and shoe clearance, adjust if needed. c. Lubricate pivot points and clean as necessary. 3. Hoist Motor a. Inspect oil level, oil pickup, and belts. b. Check for excessive heat, noise, and leaks. c. Lubricate in accordance with specifications. d. Keep end bells clean. 4. Cables a. Inspect, lubricate, and adjust hoist cables and cable drums. b. Inspect traveling cables. c. Check all cable fastenings. d. Inspect guide rails and guide shoes. 5. Gear Machines. a. Inspect worm and gear for bottoming and back lash, and thrust end play. b. Check oil level and packing. c. Check for proper oil pickup.
  2. Governor a. Observe operation.
  3. Check electrical switches and seals. c. Lubricate pivot points and clean as necessary. 7. Machine Room a. Dust machines, control cabinets, etc. b. Sweep floors and remove all trash. Relamp as necessary.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 4. Barricades

MHDL-LFT-02-01M Frequency: Monthly
Material Handling Equipment, Electric Lift Trucks
Application:

This standard applies to electric lift trucks with 2,000 and 6,000 pound lifting capacities and operating 2,000 hours per year. Contact the lift truck manufacturer in cases when lift trucks are used more than 2,000 hours per year for guidance on adjusting the frequency of maintenance.

Special Instructions:

  1. Review manufacturer’s instructions for specific guidelines, as lift trucks vary. 2. Review the Standard Operating Procedure for “Powered Industrial Trucks (Forklifts)”. 3. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources.” 4. Proper battery maintenance is critical, as poor battery care can lead to expensive component failures. a. Maintain proper water levels. b. Keep battery and terminals clean. c. Keep battery properly charged. 5. Never smoke or carry an open flame in or near the battery. 6. Use caution in handling the electrolyte, it is harmful to the skin and clothing. 7. Never remove any connecting cables or straps while charger is on or there is a possibility of a load being on the batteries, (this can cause a spark that may ignite ever present hydrogen gas). 8. Wear acid resistant apron, gloves, and plastic face shield when handling electrolyte. 9. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment”. Note the location of emergency eyewash and/or shower equipment. 10. Take appropriate action to correct deficiencies. 11. Document all findings on equipment history record.

Check Points:

  1. Motor. a. Visually inspect the motor and connections. b. Measure the winding resistance. 2. Battery. a. Inspect the battery condition and cleanliness. b. Check and restore the electrolyte level
  2. Check and restore the specific gravity. 3. Inspect the contactors. 4. Inspect the direction lever and direction switch. 5. Check the operation of the controller. 6. Tighten all fuses. 7. Inspect the wiring. a. Tighten terminal connections. b. Tighten battery connections. 8. Steering. a. Check the operation of the steering wheel. b. Inspect the steering links. c. Inspect the steering box. 9. Brake system. a. Inspect the brake lines. b. Adjust and check the operation of the brake assembly. Measure the pedal height. Replace cups at 1,000 hours. c. Adjust and check the operation of the parking brake. d. Check and restore the brake fluid level. e. Tighten the seat. 10. Lift and tilt cylinders. a. Measure the lift and tilt cylinders. b. Measure the lift speed. c. Inspect for oil leakage. d. Inspect mounting and control levers. 11. Hydraulic system. a. Check the oil pump for leaks. b. Check and restore the hydraulic oil level. c. Check the operation of the oil control valve and the tilt lock valve. d. Inspect the hydraulic pipes. e. Check and restore the transmission fluid. f. Check the differential for leaks. 12. Inspect the wheels and tires. 13. Tighten all lug nuts. 14. Inspect the wheel bearings, frame, and O.H. guard. 15. Inspect the mast/carriage and mast strips. 16. Tighten the back rest. 17. Inspect the forks and stopper pins. 18. Adjust the lift chains. 19. Inspect the anchor bolts and chain wheels. 20. Inspect the axle beam king pins and knuckles. 21. Inspect the lighting system, horn, and dash gauges.

 

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous materials and proper Personal Protective Equipment (PPE). 3. Lubricants, hydraulic, brake and transmission fluids, and battery electrolyte. Consult the MSDS for hazardous ingredients and proper PPE. 4. Specific gravity tester. 5. Appropriate spare parts.

MHDL-LFT-02-01Y Frequency: Annually
Material Handling Equipment, Electric Lift Trucks
Application:

This standard applies to electric lift trucks with 2,000 and 6,000 pound lifting capacities and operating 2,000 hours per year. Contact the lift truck manufacturer in cases when lift trucks are used more than 2,000 hours per year for guidance on adjusting the frequency of maintenance.

Special Instructions:

  1. Review manufacturer’s instructions for specific guidelines, as lift trucks vary. 2. Review the Standard Operating Procedure for “Powered Industrial Trucks (Forklifts)”. 3. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources.” 4. Never smoke or carry an open flame in or near the battery. 5. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment”. Note the location of emergency eyewash and/or shower equipment. 6. Take appropriate action to correct deficiencies. 7. Document all findings on equipment history record.

Check Points:

  1. Motor – a. Measure the brush wear. b. Measure the tension. 2. Battery – measure the volts per cell. 3. Measure the controller’s overcurrent limit. 4. Inspect steering box, brake line, and hydraulic pipe hoses and replace at least once every two years or if defective. 5. Inspect brake master cylinder cups and replace at least once every two years or if defective. 6. Lubricate the brake assembly. 7. Perform a natural drop test of the lift and tilt cylinders. 8. Measure the hydraulic oil pressure. 9. Replace the differential fluid. 10. Grease the wheel bearings. 11. Inspect the lift chains and replace at least once every three years or if defective. 12. Inspect the axle beam and mast supports.

 

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Lubricants. Consult the Material Safety Data Sheet (MSDS) for hazardous materials and proper Personal Protective Equipment (PPE). 3. Appropriate spare parts.

MHDL-LFT-03-03M Frequency: Quarterly
Loading Ramp, Adjustable
Application: This standard applies to adjustable loading ramps.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the standard operating procedure for “Controlling Hazardous Energy Sources.” 3. Disconnect, lock and tag switch.

Check Points:

  1. Inspect structural features, framework, support members, anchor bolts, pit, platform, etc. Examine condition of bumper. Does it protect ramp properly? 2. Remove dirt and trash from pit and determine if pit drain is open. 3. Inspect motor, controls, starter, push buttons, solenoids, etc. Clean, adjust and lubricate as necessary. Be sure disconnect switch can be locked. 4. For hydraulic units. a. Inspect coupling, pump, control valves, piping, relief valve reservoir, fill pipe, cap, vents, etc. clean, adjust, and lubricate as needed. b. Inspect cylinder, ram, packing glands, etc. Add or renew packing as required. c. Change oil as required. Review the material data safety sheets (MSDS) for disposal of used oil. If appropriate, recycle oil at an authorized station. Contact the regional S&EM office if you have any questions. 5. For electro-mechanical units. a. Clean and inspect coupling, reduction gear, sprockets and chain, gear trains, screw and lever, and/or other mechanical features. Look for misalignment, loose bolts, evidence of binding or wear, excessive clearance, etc., Tighten as necessary. b. Examine lubrication devices. Service if required. c. Test operation of ramp in all directions using a load if possible. Note if ramp holds and does not creep when load is applied or removed. Adjust if necessary. d. Check manual operation, power disengagement, etc. e. Lubricate as required. f. Clean up work area.

 

  1. For manual units. a. Clean and inspect all mechanical features. Look for misalignment, loose bolts, evidence of binding or wear, excessive clearance, etc., Tighten as necessary. b. Test operation of ramp in all configurations and directions using a load if possible. Note if ramp holds and does not creep when load is applied or removed. Adjust if necessary. c. If ramp is foldable, test folding in all directions and check that it completes it’s full range of motion. Adjust if necessary. d. Lubricate as required. e. Clean up work area

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Hydraulic fluid 3. Lubricants. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE.

MHDL-LFT-04-01M Frequency: Monthly
Lift, Automobile
Application: This standard applies to automotive lifts primarily used for vehicle maintenance.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the standard operating procedure for “Controlling Hazardous Energy Sources and and Confined space entry”. 3. Disconnect, lock and tag switch.

Check Points:

  1. Clean the drive assembly, lift platform, travel area, etc. Remove debris. 2. Visually inspect moving parts and cables for signs of excessive wear. 3. Check conditions of drive chain, belts, cables, etc. and adjust and replace as needed. 4. Check hydraulic seals, hoses and fittings for leaks and or damage. 5. Check hydraulic fluid levels. Replace if low or dirty. 6. Lubricate moving parts as required. Lubricate columns and ensure they are plumb. 7. Operate lift through its full range of motion in both directions, using a load if possible. Note operation of controls, safety devices, leveling, and other devices and features.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Hydraulic fluid 3. Lubricants. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE.

MHDL-LFT-04-01Y Frequency: Annual
Lift, Automobile
Application: This standard applies to automotive lifts primarily used for vehicle maintenance.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the standard operating procedure for “Controlling Hazardous Energy Sources and Confined space Entry.” 3. Disconnect, lock and tag switch.

Check Points:

  1. Complete the monthly maintenance for this equipment concurrent with this PM card. 2. Lubricate moving parts as required. Lubricate columns and ensure they are plumb. 3. Replace hydraulic fluid. It is crucial to keep it clean.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Hydraulic fluid 3. Lubricants. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Cleaning materials. Consult the MSDS for hazardous ingredients and proper PPE.

MHDL-PPB-01-01Y Frequency: Annually
Paper Baler
Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the Standard Operating Procedure for “Controlling Hazardous Energy Sources”. 3. Open and tag electric switches.

Check points:

  1. Dust or wipe clean all parts of machine. Examine structural features. 2. Blow out electric motor. Inspect starter, controls, push button, upper and lower limit switch, etc. Clean and adjust as required. 3. Check drive unit, mechanical features, and all moving parts. 4. Comply with lubrication schedule. 5. Adjust operating mechanism. 6. Clean up work area.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

 

MDHL-VHL-01-06M Frequency: Semi-annually
Material Handling Equipment, Engine Driven Vehicles
Application:

This standard applies to gasoline, LP gas, and diesel powered forklifts, tractors, front-end loaders, and light duty trucks. Review manufacturer’s instructions before proceeding.

Special Instructions:

  1. Review manufacturer’s instructions. 2. Review the Standard Operating Procedure for “Powered Industrial Trucks (Forklifts)”. 3. Handle flammable materials safely. 4. Have the proper fire extinguisher on hand. Ensure that the fire extinguisher is properly serviced and that it is in proper working order. 5. Use gasoline and LPG forklifts in well ventilated areas only.

Check Points:

  1. Change engine oil. Review the Material Safety Data Sheets (MSDS) for proper disposal of used oil. If appropriate, recycle oil at an authorized station. Contact Regional S&EM office if you have any questions. 2. Remove crankcase breather cap and wash in solvent. 3. Inspect air cleaner element and clean or replace as required. 4. Tune up engine. 5. Change hydraulic oil filter. 6. Check all belts for proper tension or wear and hoses for deterioration. Adjust or replace as necessary. 7. Inspect all gauges and indicators. 8. Test horn, backup warning and safety lights. 9. Test operate all tilt, lift, and lowering controls. 10. Test steering and adjust if necessary. 11. Check all hydraulic hoses, cylinders, and connections for leaks and condition. Tighten connections and replace hoses to correct leaks. 12. Check mechanical and hydraulic brake systems, including master cylinder fluid levels, and correct as required. 13. Lubricate all zerk fittings and any other points specified by the manufacturer. 14. Check all lift arms, stabilizers, locks, chains, cables, channels, and structure for condition and wear. 15. Where equipped with a battery, check charge, electrolyte level, and condition of cables and terminals.
  2. Check all other fluid levels and add or replace as required.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Cleaning materials and equipment. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 3. Hydraulic hose 4. Brake fluid 5. Grease gun, grease, oil 6. Hydrometer 7. Air cleaner element 8. Tune-up kit 9. Hydraulic oil filter 10. V-belts

MHDL-VHL-02-01Y Frequency: Annually
Carts and Scooters, Engine or Battery Powered
Application:

This standard card applies to propane, gasoline, and battery powered carts and scooters used to transport personnel and materials in large buildings and on compounds or complex facilities.

Special Instructions:

  1. Review manufacturer’s maintenance instructions. 2. Review the Standard Operating Procedure for “Emergency Eyewash and Shower Equipment.” 3. Work area must be properly ventilated to protect against battery gases and fumes from fuels. 4. Adequate personal protection against acid spills must be provided, i.e., face mask, rubber gloves, etc. 5. Have on hand an approved fire extinguisher. Ensure that the fire extinguisher is properly serviced and that it is in proper working order.

Check Points:

Battery powered:

  1. Remove and clean battery terminals. Clean posts and reconnect terminals. 2. Check electrolyte specific gravity with a hydrometer. 3. Add water if required. 4. Inspect lights, buzzers, controls, and wiring for tight connections and proper operation. 5. Lubricate according to manufacturer’s recommendations. 6. Check brakes, clutch, wheels, tires, steering, and frame. 7. Vacuum or blow out motor air passages and check mounting. 8. Check and adjust as needed belts and/or chain drive. 9. Test run (road test). 10. Wire brush, treat with rust inhibitor, and paint rusted areas.

Engine powered:

  1. Inspect fuel tank, connections, and lines for leaks and deterioration. Tighten or replace as required. 2. Change oil. Change oil, air, and fuel filters. 3. Change points, condenser, plugs, and rotor button if applicable.
  2. Lubricate according to manufacturer’s recommendation. 5. Check brakes, clutch, wheels, tires, steering, and frame. 6. Inspect lights, buzzers, controls, flashers, and wiring for proper operation and tighteners. 7. Check and adjust, as needed, belts and/or chain drive. 8. Start engine and perform any manufacturer’s recommended tune-up procedures. 9. Test run (road test). 10. Wire brush, treat with rust inhibitor, and paint all rusted areas.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Spark plug wrench and gap gauge 3. Feeler gauges 4. Leak detector (soap solution) 5. Filter, plugs, points, condenser, rotor button 6. Distilled water 7. Hydrometer 8. Face shield, rubber gloves, and apron. 9. Engine oil and container for old oil 10. Tire pressure gauge 11. Battery terminal cleaner brush 12. Rust inhibitor and paint. Consult the MSDS for hazardous ingredients and proper PPE. Consult the Material Safety Data Sheets to ensure that the paint lead level is 0.06% or less. 13. Emergency eye wash that provides at least 0.4 gallons/min for at least 15 minutes.

PLMB-DRN-01-01Y Frequency: Annually
Roof Drains, Downspout, and Gutter Inspection
Application

This standard applies to roof drains, downspouts, and gutters.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Use care when working in high places. 3. Use safety line with harness if necessary. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Check gutters, drains, and downspouts to insure that they are properly attached to the building, connections sealed, and free of debris. 2. Check drain strainers/screens for condition and proper installation. 3. If downspouts have heaters, test, operate and correct deficiencies. 4. Remove all trash, debris or unsecured material from roof area. 5. Where downspouts discharge onto lower roofs, check if there has been any scouring of the surfacing. 6. Check for missing or damaged splash blocks.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B 2. Ladders constructed according to OSHA/ANSI standards or scaffolding. Check ladder for defects. Do not use defective ladders.

PLMB-DRN-02-01Y Frequency: Annually
Drains: Areaway, Driveway, Storm
Application

This standard applies to areaway, driveway, and storm drains.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Perform work in autumn after leaves have fallen. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Remove grate if it exists. 2. Clean drain and area leading to drain. 3. Remove sediment, debris and trash and dispose of properly. 4. Test drain for free water flow by flushing with a hose. 5. Replace grate if removed in step 1.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic. 2. Hose 3. Work gloves

PLMB-DWS-01-01Y Frequency: Annually
Domestic Hot Water Heater – Gas
Application

This standard applies to gas fired domestic hot water heaters.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. If the insulation is known or suspected to contain asbestos, check the building’s asbestos management plan to see it has been tested for asbestos. If it is suspect but has not been tested, have it tested. Manage asbestos in accordance with the plan. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Use caution when working with natural gas fired equipment. Be aware of any smells (rotten egg) that could be a natural gas leak. 6. Do not allow any open flames around equipment.

Check Points:

  1. Attach drain hose. Drain several gallons from tank to remove sediment. 2. Manually check operation of safety valve. Check for corrosion around valve. Verify the safety valve inspection tag is in place. Ensure that no personnel are in area of relief piping discharge. 3. Check all connections – electric, gas and water. Tighten as necessary. 4. Check operation and setting of aquastat. Check hot water temperature with dial thermometer, and set aquastat at minimum value required for all uses. 5. Drain storage and expansion tanks, and flush to remove sediment, scale, and solid at bottom of tank. 6. Clean sight glasses on tanks. 7. Clean strainer, check condition of traps. Report and repair leaks. 8. Clean pump, controls, switches, and starters. Check operation of pump and condition of pump seal or packing, and replace as required. 9. If applicable, Remove and inspect Anode, replace if necessary 10. Clean up work area and remove trash. 11. If the insulation contains asbestos, it is considered hazardous waste. Refer to Appendix G for the Universal Waste Guide. Recommended Tools, Materials, and Equipment:
  2. Tool Group C 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Thermometer 4. Clamp-on ammeter 5. Gap gauge (auto ignition) 6. Drain Hose.

PLMB-DWS-02-01Y Frequency: Annually
Domestic Hot Water Heater – Electric
Application

This standard applies to electric domestic hot water heaters.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. If the insulation is known or suspected to contain asbestos, check the building’s asbestos management plan to see it has been tested for asbestos. If it is suspect but has not been tested, have it tested. Manage asbestos in accordance with the plan. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Attach drain hose. Drain several gallons from tank to remove sediment. 2. Manually check operation of safety valve. Ensure that no personnel are in area of relief piping discharge. Check for corrosion around valve. 3. Check all connections – electric and water. Tighten as necessary. Ensure power is disconnected to electric heaters prior to checking connections. 4. Check operation and setting of aquastat. Check hot water temperature with dial thermometer, and set aquastat at minimum value required for all uses. 5. Check amperage draw of upper and lower elements and compare to name plate data. 6. Clean element contacts, and check for proper closing under load. 7. Clean pump, controls, switches, and starters. Check condition of pump seal or packing, and replace as required. 8. If applicable, Remove and inspect Anode, replace if necessary 9. Clean up work area and remove trash. 10. If the insulation contains asbestos, it is considered hazardous waste. Refer to Appendix G for the Universal Waste Guide.

 

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Thermometer 4. Clamp-on ammeter 5. Gap gauge (auto ignition) 6. Drain Hose

PLMB-DWS-03-01Y Frequency: Annually
Hot Water Heater Steam Coil
Application

This standard applies to independent domestic hot water heaters, which consists of a hot water storage tank with coils for hot water or steam submerged into the water to be heated. The storage capacity is from 100 to 1000 gallons, with a temperature rise from 90 deg. F to 140 deg. F. The tank will require manholes or handhole inspection plates.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Obtain operating logs. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Review operating logs to check loss of efficiency of heat exchange surfaces, indicating scale and corrosion buildup. 6. Check inspection certificate. 7. If the insulation is known or suspected to contain asbestos, check the building’s asbestos management plan to see it has been tested for asbestos. If it is suspect but has not been tested, have it tested. Manage asbestos in accordance with the plan.

Check Points:

  1. Inspect element header and exterior of tank including fittings, manholes, and handholes for leaks and signs of corrosion. 2. Hand operate and test pressure relief valve. 3. Drain and flush tank. 4. Remove tank inspection plate and inspect tank interior. Record the size and depth of pits, presence of cracks, and condition of openings, fittings, welds, rivets, and joints. 5. Check condition of heat exchanger element. Remove and clean as necessary. 6. Inspect condition of epoxy tank lining. 7. Replace all gaskets and manhole inspection plates, and tighten all bolts as required. 8. Fill tank and check for leaks. 9. Clean strainer, check condition of traps. Report leaks.
  2. Clean pump, controls, switches, and starters. Check condition of pump seal or packing, replace as required. 11. Clean, test, and inspect sight glasses, valves, fittings, drains. 12. Inspect structural supports, and repair or replace damaged insulation or covering. 13. Schedule hydrostatic testing according to established procedures. 14. Return tank to service and observe temperature control operation. Adjust as required. 15. If the insulation contains asbestos, it is considered hazardous waste. Refer to Appendix G for the Universal Waste Guide.

Recommended Tools and Equipment:

  1. Tool Group C 2. Wrenches from stock for large bolts 3. Paint and brushes. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. 4. Cleaning and patching materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 5. Hoses 6. Goggles

PLMB-DWS-04-06M Frequency: Semi-Annually
Water Softener
Application

This standard applies to the three most common types of serviceable water softeners: Lime, zeolite, and anthracite.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Drain the tank. a. Examine the exterior of the tank including fittings, gauges, manholes, and handholes for signs of leaks or corrosion. Repair as necessary. b. Inspect structural supports and insulation or coverings for defects or deterioration. c. Open the tank and remove rust or chemical deposits from interior tank surfaces. d. Remove and clean all spray nozzles. e. Inspect the interior of the tank for pitting, cracks, and other defects. 2. Lime Water Softener f. Dismantle vacuum breakers. Inspect stem, valve seat and spring. Repair as required. g. Inspect, clean, and flush the nozzle ring. h. Remove vent condenser heads and clean the tubes. i. Inspect and clean the sight glass, level indicators, and level controllers. 3. Zeolite Water Softener j. Check the filter bed for proper level k. Take samples of the resin according to manufacturer’s instructions and send to a lab for analyses. 4. Anthracite Water Softener. l. Check the filter bed for proper level

 

Recommended Tools, Materials, and Equipment:

  1. Tool Group C. 2. Respirator 3. Gravel, sand, and charcoal

 

PLMB-DWS-05-06M Frequency: Semi-annually
Water Filter
Application:

This standard card applies to water filters installed in secondary water systems for heating and cooling systems. These filters may be either a disposable cartridge type filter or a washable and reusable filter media.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Drain water from filter housing. 2. Remove cover from filter housing. 3. Remove spring, “O” rings, etc., and old filter. 4. Clean and flush filter housing. 5. Clean filter media, if applicable. 6. Install filter media or cartridge. 7. Replace springs and “O” rings. 8. Replace housing cover. 9. Open inlet and outlet valves. 10. Check housing cover for leaks.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic 2. Filter cartridge or media, if applicable. 3. Gaskets or “O” rings, as applicable.

PLMB-DWV-01-01Y Frequency: Annually
Sewage Ejector (Pneumatic Tank Type Ejectors)
Application

This standard applies to pneumatic tank type sewage ejectors. Components consist of sewage tank and air lines from a tank or compressor with various valves and controls. When the tank fills the valves open to eject sewage with compressed air.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule outage with operating personnel. 3. Review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Observe personal safety requirements when working with the sewage ejector and related piping.

Check Points:

  1. Inspect check valves in compressor or air storage tank inlet lines to tank, and suction and discharge lines of sewage pot. 2. Check freedom of motion, and wear on check valve clapper and clapper seat. 3. Remove sewage pot inspection plate. Inspect and clean float ball, bucket and rod or level sensor. There may be a few floats for different levels of ejection and a high level alarm. 4. Inspect float assembly linkage, shaft, keys, and keyways. Look for wear, binding, etc. 5. Change oil in immersed float switch. Check packing. Review the Material Safety Data Sheets (MSDS) for proper disposal of used oil. If appropriate, recycle oil at an authorized station. Contact the Regional S&EM office if you have any questions. 6. Remove any obstructions from water line. Clean strainer. 7. Check solenoid valve on air inlet for operation and freedom of movement. 8. Check that vent line is clear of any obstructions. 9. Clean up work area and remove all debris.

Recommended Tools, Materials, and Equipment:

 

  1. Tool Group C 2. Cleaning equipment and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 3. Lubricants and float oil (if required). Consult the MSDS for hazardous ingredients and proper PPE. 4. Other PPE such as clothing, respirators, and gloves required for personal protection.

PLMB-DWV-02-01Y Frequency: Annually
Sewage Ejector, Sump Type
Application

This standard applies to sump pump type sewage ejectors that operate by means of an electric motor, pump with controls for pump start/stop and staging.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule outage with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 6. Wear rubber apron, gloves, boots, full face shield, and respirator when performing this work. 7. If a person must enter the pit, test for oxygen deficiency and supply proper ventilating equipment as needed. 8. No open flames or smoking. 9. If strainer and check valve cleaning requires removal of pump unit which should be considered a repair and not general maintenance.

Check Points:

  1. Remove cover plates, flush pit, and pump out. 2. Check operation of level sensors, floats, rods, switches, or other types of level sensors and alarms. 3. Check and inspect wiring, electrical connections and conduit for corrosion and tightness. 4. Clean pump and lubricate as required. Some pumps have sealed factory lubricated bearings that require no further service until replacement is needed. 5. Inspect check valve. 6. Inspect interior of pit for cracks. 7. Clean motor with vacuum or low pressure air (less than 40 psi). Check for obstructions in motor cooling and air flow. 8. Check for corrosion. Clean and treat with rust inhibitor as needed. 9. Inspect cover plate gaskets and replace if necessary. 10. Clean up work area and remove all debris.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Cleaning equipment and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 3. Lubricant (per manufacturer’s instructions). Consult the MSDS for hazardous ingredients and proper PPE. 4. Other PPE such as clothing, full face shield, respirator, and gloves required for personal protection. 5. Ventilating equipment 6. Toxic gas test meter

PLMB-DWV-03-01Y Frequency: Annually
Sump Pump
Application

This standard applies to sump pump that operates by means of an electric motor, pump with controls for pump start/stop and staging.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Schedule outage with operating personnel. 3. Review manufacturer’s instructions. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If the material removed from the pump is hazardous, contact the Regional S&EM office for disposal instructions. 6. If strainer cleaning requires removal of pump unit which should be considered a repair and not general maintenance. 7. Excessive sediment and debris, not removed by flushing the pit should be handled on a project basis, and not considered under this standard.

Check Points:

  1. Remove cover plates, flush pit, and pump out. 2. Check operation of level sensors, floats, rods, switches, or other types of level sensors and alarms. 3. Clean pump and motor and lubricate as required. Some pumps have sealed factory lubricated bearings that require no further service until replacement is needed. 4. Inspect check valve. 5. Inspect interior of pit for cracks. 6. Inspect cover plate gaskets and replace if necessary. 7. Clean up work area and remove all debris.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Cleaning equipment and materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE).
  2. Lubricant (per manufacturer’s instructions). Consult the MSDS for hazardous ingredients and proper PPE. 4. Other PPE such as clothing, full face shield, respirator, and gloves required for personal protection.

PLMB-DWV-04-01W Frequency: Weekly
Emergency Wash
Application:

This equipment includes emergency showers, eye-wash equipment, eye/face wash equipment, hand held drench hoses, and combination shower and eye-wash equipment, installed for the emergency treatment of the eyes and body of a person who has been exposed to injurious material. This includes water treatment chemicals, battery acid, cleaning solvents and compounds, etc.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. On non-plumbed units (units containing their own water supply), use manufacturer’s instruction to perform maintenance. 6. Where units have been sealed, be certain seals are available to re-seal the unit after PM is accomplished. 7. Where flow alarms have been installed, check with responding unit before activating the unit.

Check Points:

  1. Activate the unit to flush the line and verify proper operation. 2. Assure that area is free of obstructions, that activation mechanisms are accessible to personnel in a distressed condition. 3. Operate valve in full open and close position. Loss of ability to close tightly will require inspection of valve seals and discs for wear and contaminate build-up. 4. If applicable, check tempering feature, verify temperature and flow is correct. 5. Check systems for cleanliness and clean if necessary.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

 

PLMB-DWV-05-01Y Frequency: Annually
Emergency Shower
Application:

This equipment includes emergency showers, eye-wash equipment, eye/face wash equipment, hand held drench hoses, and combination shower and eye-wash equipment, installed for the emergency treatment of the eyes and body of a person who has been exposed to injurious material. This includes water treatment chemicals, battery acid, cleaning solvents and compounds, etc.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Check operation of self-closing valve. 2. Check fittings. 3. Check pull lever for proper function. 4. Check shower head for signs of corrosion, encrustation, or foreign particles. Clean as necessary.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

 

PLMB-DWV-06-01Y Frequency: Annually
Septic Tank and Drain Field
Application:

This procedure covers all septic tanks and drain fields.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Wear suitable protective clothing. 6. No open flames or smoking. 7. Use barricades around tank opening. 8. Follow “Confined Space” policies and procedures

Check Points:

  1. Remove cover. 2. Pump out contents of tank into container truck that meets State health requirements. 3. After contacts are removed, inspect to make sure that baffle plates are in place and tank is in good condition. 4. Run water from inside of building to ensure that there are no blockages in the waste pipe from the building to the septic tank. 5. Install cover. 6. Contents of tank should be disposed of in accordance with State health requirements.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Long handled scrapper 4. Barricade

PLMB-HWS-01-01Y Frequency: Annually
Hot Water Converter Steam
Application:

This standard card applies to hot water converters using a heat exchanger to transfer the heat from a steam system to the hot water system.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Review operating logs to check loss of efficiency of heat exchange surfaces, indicating scale and/or corrosion build-up. 6. If the insulation is known or suspected to contain asbestos, check the building’s asbestos management plan to see it has been tested for asbestos. If it is suspect but has not been tested, have it tested. Manage asbestos in accordance with the plan.

Check Points:

  1. Inspect element header for signs of leaking or corrosion. Remove corrosion and encrustations. 2. Remove heat exchanger element and clean only if a loss of efficiency is indicated, or signs of leaking around header are evident. 3. Tighten all bolts around header. 4. Renew paint/protective coating/insulation as required. 5. Drain storage and expansion tanks, and flush to remove sediment, scale, etc. 6. Clean sight glasses on tanks. 7. Clean strainer, check condition of traps. Report leaks. 8. Clean pump, controls, switches, and starters. Check condition of pump seal or packing, and replace as required. 9. Clean up work area and remove trash. 10. If the insulation contains asbestos, it is considered hazardous waste. Refer to Appendix G for the Universal Waste Guide.

Recommended Tools, Materials, and Equipment:

 

  1. Tool Group C 2. Wrenches from stock for large bolts 3. Paint/brushes. Consult the Material Safety Data Sheet to ensure that the paint lead level is 0.06% or less. 4. Cleaning materials. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 5. Hose 6. Goggles

PLMB-HWS-02-06M Frequency: Semi-annually
Solar Heating System
Application:

This standard applies to all solar collector panels for domestic hot water.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Check system pressure on closed loop for loss of fluid; pressure should be 40 psig. 2. Check glycol strength. Run pH test on glycol-water solution. If required, drain entire solution and replace with a 50-50 mixture of glycol and water. 3. Check for leaks and condition of insulation on lines. 4. Remove heat exchanger element and clean only if a loss of efficiency is indicated or signs of leaking are evident around header. 5. Inspect element header for signs of leaking or corrosion. Remove corrosion and encrustations. 6. Tighten all bolts around header. 7. Clean strainer and check condition of traps. Report leaks. 8. Check and secure all pipe hangers, expansion joints, and associated items. 9. Drain storage and expansion tanks; flush to remove sediment, scale, etc. 10. Clean sight glasses and flow indicators on tanks. 11. Check valves for proper positioning. 12. Clean pump, controls, switches, and starters. Check condition of pump seal or packing and replace as required. Lubricate motor if required.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Antifreeze tester 3. Cleaning materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).
  2. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 5. Hose 6. Goggles

PLMB-HWS-02-01Y Frequency: Annually
Solar Heating System
Application:

This standard applies to all solar collector panels.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Check collector glazing for cracks or deterioration. Clean as required. 2. Check collector for damage and report same to supervisor. 3. If conditions warrant, clean collector glass with warm water or, if badly soiled, with a mild detergent and water. Never use a chemical glass cleaner, abrasives, steel wool, or any substance that could scratch the surface. Cold water should never be sprayed on hot collector surfaces. 4. Renew paint and/or protective coating. 5. Check collector framework and lines; ensure that unit is firmly bolted and anchored.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Wrenches for large bolts 3. Paint/brushes. Consult the Material Safety Data Sheet to ensure that the paint lead level is 0.06% or less. 4. Cleaning materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

PLMB-PLB-01-01Y Frequency: Annually
Expansion Joints In Piping
Application:

This standard applies to slip type joints only. Bellows type joints are to be replaced when a leak occurs.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check points:

  1. Slip-type Joint with packing-gland. a. Examine joint closely, look for evidence of displacement, loose or defective anchors or bolts, alignment of joint with piping, guide rods, etc. Correct what can be done with pressure on. b. Observe packing gland, adjust to stop weeping or leaks. c. Renew packing completely when system is down for other reasons such as repair, overhaul or maintenance of other components. 2. Gun-packed type. a. Perform work prescribed in (1a) and (1b) for slip-type joint with gland. b. Add packing if needed. 3. Clean up work area.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C. 2. Lubricants. Consult the Material Safety Data Sheet for hazardous ingredients and proper Personal Protective Equipment. 3. Cleaning supplies and materials. Consult the Material Safety Data Sheet for hazardous ingredients and proper Personal Protective Equipment.

PLMB-PLB-02-01Y Frequency: Annually
Strainer, Y-Type
Application

This standard applies to Y-type strainers that are at remote locations or that are not included under the guide card of equipment they are paired with. Typically guide cards for various pumps include strainers as children rather than list maintenance for strainers on pump guide.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule outage with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If the material removed is hazardous, contact the Regional S&EM office for disposal instructions. 6. The maintenance of Y-type strainers should be scheduled to coincide with the maintenance of the equipment that they are associated with unless strainer cleaning requires removal of the pump unit which should then be considered a repair and not general maintenance.

Check Points:

  1. Secure strainer isolation valves. 2. Drain strainer housing. 3. Back flush if possible or remove and clean strainer cage, if applicable. 4. Replace cartridge type and clean out strainer housing, if applicable. 5. Reassemble unit or replace drain plug and open isolation valve. 6. Check unit for leaks. 7. Clean up work area and remove all debris.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – basic 2. Hose and bucket 3. Gaskets or gasket material 4. Cartridge filter replacements

PLMB-PLB-03-01Y Frequency: Annually
Strainer, Bolted Flange Type (Water and Steam)
Application

This standard applies to the maintenance of bolted flange type strainers that are not included under the guide card of equipment they are paired with. Typically guide cards for various pumps include strainers as children rather than list maintenance for strainers on pump guide.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule outage with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If the material removed is hazardous, contact the Regional S&EM office for disposal instructions. 6. The maintenance of strainers should be scheduled to coincide with the maintenance of the equipment that they are associated with unless strainer cleaning requires removal of the pump unit which should then be considered a repair and not general maintenance.

Check Points:

  1. Remove flange cover bolts. 2. If required, use hoist or crane to remove cover plate. 3. Remove device or devices; clean and inspect for damage. 4. Clean strainer housing cover plate and any interior apparatus. Check for cracks and deterioration. 5. Install new cover gasket and reassemble. 6. Remove tags and open valves; check for leaks. 7. Clean up work area and remove all debris.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – basic 2. Hose and bucket 3. Gaskets or gasket material 4. Crane or hoist if needed

PLMB-PLB-04-01Y Frequency: Annually
Dual Strainer
Application

This standard applies to those strainers used to remove the larger particles of debris in water that may be drawn from rivers, reflecting pools, or non-potable sources. Many are motorized self cleaning type. This water is sometimes used as condenser water in refrigeration systems. These strainers are installed just ahead of backwash strainers.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule outage with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If system is used as condenser water for a refrigeration unit, ensure the affected refrigeration unit is shutdown. 6. If the material removed from is hazardous, contact the Regional S&EM office for disposal instructions.

Check Points:

  1. Close off main water inlet. 2. Close off condenser valves. 3. Open all drains and start drain pump if necessary. 4. Clean both strainer lid covers and remove baskets. 5. Clean inner housing, baskets, and screens. 6. Replace lid hatch seals. 7. Check sliding door seals and replace if necessary. 8. Check for pitting and corrosion and paint with rust inhibitor wherever necessary. 9. Check strainer baskets; repair or replace as necessary. 10. Remove and replace gland packing. 11. Remove and replace lubricant in gear box with manufacturer’s recommended type. 12. Lubricate motor. 13. Check starter, relays, contactor, points, and wire connections. 14. Run drive mechanism and check for proper operation.
  2. Install baskets, close lids, open valves, and check for leaks. 16. Replace hoist ropes if necessary and inspect pulleys. 17. Clean outside casing and touch up pitted or corroded areas with rust inhibitor. 18. Clean up work area and remove all debris.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – basic 2. Hose and bucket 3. Gaskets or gasket material 4. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Cleaning equipment and material. Consult the MSDS for hazardous ingredients and proper PPE. 6. Multimeter 7. Rust inhibitor. Consult the MSDS for hazardous ingredients and proper PPE. 8. Crane or hoist if needed

 

PLMB-PLB-05-01Y Frequency: Annually
Backwash Strainer
Application

This standard applies to those strainers used to remove the small solids found in water drawn from rivers, reflecting pools, etc. Many are motorized self cleaning type. This water is sometimes used as condenser water in refrigeration systems. These strainers are installed just after the dual strainers.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule outage with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If the material removed from is hazardous, contact the Regional S&EM office for disposal instructions.

Check Points:

  1. Close inlet and outlet valves. 2. Drain backwash. 3. Install hoist and remove lid bolts. 4. Remove wiring harness and shaft hex nuts. 5. Lift cover flange. 6. Remove tube support rod nuts and tie bar. 7. Individually remove tubes and acid/detergent clean each tube. 8. Clean inner casing and tube sheet. Inspect for pits and cracks. 9. Remove side inspection plate and clean bottom sump. 10. Inspect arm assembly and bolt flange. 11. Inspect cutless bearing (rubber lined cylindrical bearing), bearing housing, set screw, shaft coupler bolt and nut, shaft, and distributor barrel seat. 12. Install tubes, rod nuts, and tie bars. 13. Replace shaft gasket. 14. Inspect main shaft, bearing housing, set screw, cutless bearing, drive shaft bearing, and the stud and nut (upper unit). 15. Replace gasket for main cover. 16. Install cover lid and bolts. 17. Replace packing and inspect gland bolt.
  2. Replace two “O” rings on upper shaft. 19. Inspect thrust bearings and replace if necessary. 20. Replace shear key and install hex nuts. 21. Drain oil from gear case and replace. 22. Install wiring harness and lubricate motor if necessary. 23. Check all starting relay contacts and wire connections. 24. Start backwash; observe rotation and arm movement through inspection plate. 25. Clean tubing and flange for pressure gauge. 26. Secure unit and install inspection plate. 27. Close drain valve and open inlet and outlet valves. 28. Start backwash and adjust packing. 29. Inspect unit for leaks. 30. Touch up rusted and corroded areas with rust inhibitor and paint. 31. Clean up work site.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – basic 2. Hose and bucket 3. Gaskets or gasket material 4. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 5. Cleaning equipment and material. Consult the MSDS for hazardous ingredients and proper PPE. 6. Multimeter 7. Rust inhibitor. Consult the MSDS for hazardous ingredients and proper PPE. 8. Crane or hoist if needed

PLMB-PLB-06-01Y Frequency: Annually
Steam Traps (High Pressure)
Application:

This standard applies to all types of high pressure steam traps.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Check trap operation under steam pressure. 6. Remove and replace faulty traps or trap elements

Check Points:

  1. Thermostatic traps. (Bellows or diaphragm type) a. Remove cap or bonnet. b. Clean interior of trap, valve, and seat. c. Inspect bellows and diaphragm and note by sound whether it contains liquid charge. d. Replace bellows or diaphragm as necessary. e. If valve seat is cut, replace seat. 2. Float and/or thermostatic traps. a. Remove bonnet. Inspect linkage and float operation for leakage, defective operation or deterioration. b. Examine, clean, and check operation of bellows as in 1 above. 3. Inverted bucket trap. a. Remove bonnet. b. Clean interior or trap. c. Inspect valve linkage mechanism and seating of valve. d. Examine condition of bucket. e. Examine vent or face, inlet and outlet for evidence of corrosion. 4. Impulse trap. a. Remove bonnet. b. Inspect valve disc, inlet valve, outlet outface. c. See that fulcrum point is free of dirt. d. Clean body of trap.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C

PLMB-PLB-06-05Y Frequency: Every 5 Years
Steam Traps (Low Pressure)
Application:

This standard applies to all types of low pressure steam traps.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Check trap operation under steam pressure. 6. Remove and replace faulty traps or trap elements

Check Points:

  1. Thermostatic traps. (Bellows or diaphragm type) a. Remove cap or bonnet. b. Clean interior of trap, valve, and seat. c. Inspect bellows and diaphragm and note by sound whether it contains liquid charge. d. Replace bellows or diaphragm as necessary. e. If valve seat is cut, replace seat. 2. Float and/or thermostatic traps. a. Remove bonnet. Inspect linkage and float operation for leakage, defective operation or deterioration. b. Examine, clean, and check operation of bellows as in 1 above. 3. Inverted bucket trap. a. Remove bonnet. b. Clean interior or trap. c. Inspect valve linkage mechanism and seating of valve. d. Examine condition of bucket. e. Examine vent or face, inlet and outlet for evidence of corrosion. 4. Impulse trap. a. Remove bonnet. b. Inspect valve disc, inlet valve, outlet outface. c. See that fulcrum point is free of dirt. d. Clean body of trap.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C

PLMB-PLB-07-01Y Frequency: Annually
Distiller, Water, Laboratory use only
Application

This standard applies to water distillers used in laboratories only.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s operation and maintenance instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Secure and tag water supply.

Check Points:

  1. Drain the unit. 2. Remove cover and clean interior of unit, including heating element electrode. 3. Inspect control cabinet. Clean by using vacuum or dry compressed air to remove dust and tighten all connections. 4. Check for leaks at fittings, gaskets and gauge glass. 5. Restore to service and check operation. 6. Collect sample and perform water hardness test.

Recommended Tools, Materials, and Equipment:

  1. Tool Group B. 2. Water Testing Kit 3. Measuring containers

PLMB-VLV-01-01M Frequency: Monthly
Valve, Safety Relief
Application:

This standard card applies to safety relief valves installed on boilers, steam lines, and other equipment. The safety valves are designed to safely relieve excessive pressure, thus preventing rupture or explosion of the pressure parts. Safety valves differ from relief valves in that the safety relief valve opens fully when the applied pressure exceeds its lifting set-point and remains open until the applied pressure drops below its reset point. Relief valve start to open when pressure overcomes the spring pressure and remains open to the degree that the applied pressure pushes it open. When pressure drops, the spring closes the valve.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. The safety relief valves are designed to be operated by steam and should only be tested when sufficient pressure exists to clear the seating area of any debris. 6. Check with foreman and operating personnel before performing this test. 7. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan

Check Points:

  1. Inspect condition of spring, flanges, and threaded connections. 2. Inspect the manual lifting lever for obstruction and damage, Note follow manufacturers procedures for manually lifting valve via valve lever. Check for binding of the stem or seat. Make sure that the valve returns to proper position when the lever is released. 3. Inspect support brackets and tighten as required
  2. Check that the discharge piping support is tight and not causing stress on the valve. 5. Clean the valve body. 6. Lubricate the stem and lever pivot.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C

PLMB-VLV-02-01Y Frequency: Annually
Valve, Regulating
Application:

This applies to single or double seated, diaphragm or spring loaded pilot operated valves.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work.

Check Points:

  1. Inspect for dirt collected at bleed port and restriction elbow. Clean if necessary. 2. Inspect joints for leakage. Tighten all bolts 3. Check for dust or other material on the upper face of the pilot pressure plate. Clean if needed. 4. Remove and clean line strainer (back-flush where possible). 5. Inspect valve head and seats for nicks or abrasions. Notify supervisor if valve requires regrinding. 6. Inspect pressure reading against set point. 7. Check for free operation of valve stem. 8. Inspect condition of diaphragm. 9. Inspect pilot line for leaks. 10. Clean up work area and remove all debris.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C

 

PLMB-VLV-03-01Y Frequency: Annually
Valve, Manually Operated
Application:

This applies to valves other than those used on Fire Protection systems. Maintenance for valves used on fire protection systems are described under the appropriate guide for the specific item of fire protection equipment.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan.

Check Points:

  1. Operate valve in full open/closed position. Loss of ability to close tightly will require inspection of valve seals and discs for wear and contaminant build-ups. 2. Check for sticking valve stems and lubricate stems and fittings sparingly. 3. Replace packing; dress, re-bush, or replace packing gland assembly, if required. 4. Check for freedom of motion on valves equipped with wheel and chain for remote operation. 5. Clean up work site.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

PLMB-VLV-04-01Y Frequency: Annually
Valve, Critical Check
Application:

This standard card applies to check valves in primary fluid systems that improve operating efficiency or prevent damage to system components. It applies only to check valves not serviced in conjunction with their associated equipment.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Schedule shutdown with operating personnel. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan.

Check Points:

  1. Remove the cover and clean the valve seat and disc. 2. Examine the hanger, disc, and seat for cracks or wear. 3. Check seals, packing, and gaskets for deterioration; replace if necessary. 4. Reassemble valve using a new cover gasket or seal. 5. Test under operating conditions if possible.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Packing and gaskets 3. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE)

PLMB-VLV-05-01Y Frequency: Annually
Valve, Backflow Preventer
Application:

This standard card applies to approved backflow prevention devices installed in water lines to prevent the backflow of contaminated water into the potable water system. Standard check valves or double check valves are not approved backflow preventers and are not included for servicing under this standard.

Backflow preventers are installed in main supply lines and water lines that supply boilers, central chilled water units, cooling towers, deep sinks used for cleaning, lawn sprinklers, lavatories, kitchen equipment, fire sprinkler systems, hose bibs, laboratories, or wherever contaminated water could backflow into the potable water system.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Schedule outage of equipment with operating personnel. For cafeteria kitchens, coordinate the maintenance activity with the cafeteria operator. 5. Schedule maintenance on manually operated valves in conjunction with this activity. 6. Typically, backflow prevention devices MUST be tested by a licensed journeyman tradesperson certified by the authority having jurisdiction. Comply with this authority as required. 7. Review manufacturer’s instructions for maintenance and testing procedures and required equipment. These procedures may vary depending on the model and size of the backflow preventer. 8. Study the test procedures to be used.

Check Points:

  1. On reduced pressure zone backflow preventers, perform the following tests in accordance with the manufacturer’s specifications, using the appropriate test kit: a. Test check valve number 2 for tightness against reverse flow. b. Test gate valve number 2 for tightness.
  2. Test check valve number 1 for tightness. d. Test operation of pressure differential relief valve.
    2. Service the first and second checks. CAUTION: If the check valve is spring loaded, do not remove the spring retainers. Consult the manufacturer’s instructions for proper servicing. a. Carefully remove screws, cover, and check. b. Disengage the disc and spring assembly into individual components in accordance with manufacturer’s instructions. Remove any embedded foreign objects, and inspect for corrosion, worn seals, etc. Clean or replace the assembly as required. c. Clean or replace seals as necessary. Apply a light coating of manufacturer’s specified and FDA approved lubrication prior to installation of seals. d. Reassemble the check valve module in reverse order. e. Repeat for second check. 3. Service the relief valve. CAUTION: Springs may be loaded. Strictly comply with manufacturer’s instructions. a. Remove bolts, cover, diaphragm, and relief valve piston assembly per manufacturer’s instructions. b. Clean or replace wiper seal, piston “O” ring, and relief valve disc as required. Apply appropriate lubricant to “O” ring per manufacturer’s specifications prior to reinstallation. c. Inspect bottom spring assembly. If defective, replace entire unit. Do not attempt to remove the spring. 4. Following the manufacturer’s procedures, test and calibrate the device. 5. Following the manufacturer’s procedures, vent both chambers and return the system to normal operation. Verify that there is no dripping or periodic spitting, and that the water flows properly and pressure drop is normal. 6. For cafeterias and kitchens only, inspect food cookers, post-mix carbonated beverage machines, dishwashers, hose bibs, and service sinks and determine whether a backflow preventer is installed. If missing, ensure a preventer isn’t located upstream, then initiate a work order to install one if required.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Manufacturer’s testing, service, and calibration kits. 3. Lubricants. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

 

TANK-AGS-01-01Y Frequency: Annually
Tanks, Air, Refrigerant, LP Gas
Application:

This standard card applies to three types of fixed storage tanks; air, refrigerant, and LP gas. These are large permanently mounted supply or reserve tanks. Not included are main supply tanks serviced by the supplier, or small returnable tanks used on mobile equipment or for maintenance..

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Maintenance shall be coordinated with required inspections. This applies to hot water, cold water, expansion tanks, etc., but not to hot water converter (steam) tanks. 5. Review the Standard Operating Procedure for “Confined Space Entry.” Follow OSHA guidelines for permitting of entry and atmospheric testing of confined spaces. NEVER enter a confined space without a safety watch. 6. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 7. If asbestos containing materials are present, check the building’s asbestos management plan as described in the Environmental Management portion of the Safety and Environmental Management Program. Manage asbestos in accordance with the asbestos management plan.

Check Points:

  1. Examine exterior of tank, including fittings, gauges, manholes, and handholes for leaks, rust, and corrosion. Wire brush and touch up paint. 2. Open tank and remove rust, scale and sludge by scraping, wire brushing, or shot cleaning. If the material removed from the tank is hazardous waste, refer to Appendix G for the Universal Waste Guide. 3. Prior to entering the tank, ensure that it is a safe environment for entry by testing the air. Follow appropriate safety precautions. 4. Inspect interior of tank carefully, recording the size and depth of pits, presence of cracks and condition of openings, fittings, weld, rivets, and joints. 5. Touch up interior coat with an approved protective coating.
  2. Inspect structural supports and condition of insulation, if any. If insulation contains asbestos and is damaged or eroded, it is considered hazardous waste. Refer to Appendix G for the Universal Waste Guide. 7. Perform hydrostatic test, if required. Note: Hydrostatic test of unfired pressure vessels is required of any vessel that has a capacity of greater than 30 gallons and operates at a pressure in excess of 60 psig.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Paint. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. 3. Protective coating material. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Expansion meter or gas meter 5. Approved fire extinguisher. Ensure that the fire extinguisher is properly serviced and that it is in proper working condition. 6. Respirator.

 

TANK-CHM-01-01Y Frequency: Annually
Chemical Storage Tanks
Application:

This maintenance standard applies to chemical tanks other than water softener tanks or plastic expendable vats or tanks.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Confined Space Entry.” Follow OSHA guidelines for permitting of entry and atmospheric testing of confined spaces. NEVER enter a confined space without a safety watch. 5. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 6. Schedule annual valve maintenance in conjunction with this activity.

Check Points:

  1. Examine exterior of tank, including fittings, gauges, structural supports, manholes, and handholes for leaks, signs of corrosion, or other defects. Correct as indicated. 2. Drain and flush the tank. If the material removed from the tank is hazardous waste, refer to Appendix G for the Universal Waste Guide. 3. Prior to entering the tank, ensure that it is a safe environment for entry by testing the air. Follow appropriate safety precautions. 4. Open tank and remove rust or chemical deposits from interior surfaces. 5. Inspect thoroughly the interior of the tank; record the size and depth of pits, presence of cracks, and the condition of openings, fittings, welds, rivets, and joints. 6. Check condition of agitators and/or float assemblies. 7. Clean strainer(s). 8. Touch up cost with approved protective coating.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic
  2. Paint. Consult the Material Safety Data Sheet (MSDS) to ensure that the paint lead level is 0.06% or less. 3. Protective coating material. Consult the MSDS for hazardous ingredients and proper personal protective equipment (PPE). 4. Respirator and ventilation equipment 5. Face shield, rubber apron, other appropriate protective equipment as required.

 

TANK-FOL-01-04Y Frequency: 4-Year
Tanks, Fuel Oil Storage
Application:

This standard card applies to fuel oil storage tanks generally used for heating oil supply.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard (Appendix I), the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Review the Standard Operating Procedure for “Confined Space Entry.” Follow OSHA guidelines for permitting of entry and atmospheric testing of confined spaces. NEVER enter a confined space without a safety watch. 5. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 6. If asbestos containing materials are present, check the building’s asbestos management plan as described in the Environmental Management portion of the Safety and Environmental Management Program. Manage asbestos in accordance with the asbestos management plan.

Check Points:

  1. Refer to Appendix I for requirements and procedures.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Goggles 3. Respirator 4. Safety harness

TANK-UST-01-01M Frequency: Monthly
Underground Storage Tanks
Application:

This standard card applies to UST systems used to store regulated substances (i.e., petroleum products and hazardous substances)

Special Instructions:

Reference Appendix I

TANK-WTR-01-03Y Frequency: 3-Year
Tanks, Water Storage
Application:

This standard applies to all storage tanks including hot water, cold water, and expansion tanks which water is stored.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Maintenance shall be coordinated with required inspections. This applies to hot water, cold water, expansion tanks, etc., but not to hot water converter (steam) tanks. 5. Review the Standard Operating Procedure for “Confined Space Entry.” Follow OSHA guidelines for permitting of entry and atmospheric testing of confined spaces. NEVER enter a confined space without a safety watch. 6. Review the Standard Operating Procedure for “Selection, Care, and Use of Respiratory Protection”. 7. If asbestos containing materials are present, check the building’s asbestos management plan as described in the Environmental Management portion of the Safety and Environmental Management Program. Manage asbestos in accordance with the asbestos management plan.

Check Points:

  1. Examine exterior of tank including fittings, manholes, and handholes for leaks, signs of corrosion, and correct as indicated. 2. Drain and flush tank. 3. Prior to entering the tank, ensure that it is a safe environment for entry by testing the air. Follow appropriate safety precautions. 4. Open tank and remove rust, scale and buildup by scraping, wire brushing or shot cleaning. 5. Inspect thoroughly the interior of tank; record the size and depth of pits, presence of cracks and condition of openings, fittings, welds, rivets, and joints. 6. Coat with epoxy or other approved protective coatings. 7. Inspect structural supports and repair or replace damaged insulation or covering. If insulation contains asbestos and is damaged or eroded, it is

considered a hazardous waste. Refer to Appendix G for the Universal Waste Guide. 8. Clean, test and inspect sight glasses, valves, fittings, drains, and controls. 9. Perform hydrostatic test if required. 10. Fill and return to service. 11. Add an EPA approved biocide. 12. Clean up work site.

Recommended Tools, Materials, and Equipment:

  1. Tool Group C 2. Safety signs 3. Respirator. 4. Goggles 5. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 6. EPA approved biocide. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE).

 

VTRN-ELV-01-06M Frequency: Semi-annually
Elevators, Hydraulic
Application:

This standard applies to hydraulically operated passenger and freight elevators.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. This elevator inspection guide is adapted from the ANSI/ASME Codes A17.1 and A17.2, hereinafter referred to as the “code.” Refer to these documents for comprehensive instructions on elevator inspections. Adhere to local codes when applicable. 3. Inspectors shall meet the requirements of the ANSI/ASME QEI-1 Standard for the Qualifications of Elevator Inspectors and shall be recognized by GSA. Inspectors and inspection supervisors shall be certified by an ASME accredited organization in accordance with the requirements of ASME QEI-1. Inspections and tests shall be performed by an inspector employed by GSA or by an outside inspector authorized by GSA to perform them. They shall be witnessed by an inspector employed by GSA, or by a qualified person authorized by GSA to witness the tests and inspections on its behalf. Immediately following these inspections and tests, the inspector shall submit to GSA a statement certifying that the inspections and tests have been performed and a report on the results thereof. 4. Avoid the wearing of loose clothing and neckties during the performance of this inspection. 5. Be at all times vigilant of the location and movement of cars, counterweights, projections, rotating machinery, etc. Note the clearance available when working on top of the car or in the pit. Do not enter any pit containing standing water. 6. Be sure that safety devices are operational before performing any inspection work. 7. Inspection checklists adapted from the code are included for convenience. 8. The semiannual inspection of hydraulic elevators includes those designated as routine in the code. 9. Items requiring attention should be reported to the elevator shop supervisor or elevator contractor. 10. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 11. Use energy efficient lighting to the fullest practical extent.
  2. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 13. Comply with state and local codes as applicable.

Check Points, Perform the following in accordance with the elevator code:

  1. Inside of Car: Emergency stop switch; car emergency signal; rated load, platform area capacity and data plate; signs in freight elevator; car enclosure; ventilation of passenger elevators; side emergency exits; car door or gate; car door or gate electric contacts; closed position of car door or gate; power opening of doors or gates; power closing of doors or gates; door reopening device; car floor and landing sill; operating control device; emergency signal device; and car lighting (including emergency). 2. Outside Hoist way: Car platform guard; power closing of hoist way doors; sequence operation; hoist way enclosure; hoist way doors; vision panels; hoist way door locking device; elevator parking device; access to hoist way; and emergency doors. 3. Top of Car: Top car clearance and refuge space; stop switch top of car; top car operating device; top car light and outlet; traveling cables and junction; door gate contacts, cams, etc., hangars and connections; hoist way clearances; normal terminal stopping device; top emergency exit; crosshead data plate; construction of hoist way; floor over hoist way; hoist way smoke control; guide rails, fastenings, and alignment; pipe, wiring, and ducts; floor numbers; landing sill guards, projections, and recesses; car frame and stiles; and anticreep leveling device. 4. Machine Room and Machinery Space: Access to machine space; pressure tanks; lighting machine space; ventilation of machine and control space; guards for exposed equipment; control valve; terminal stopping device; pumps; relief and check valve; drives; flexible hose and fittings; tank and oil level; controller wiring fuses, etc.; piping supply line and shutoff. 5. Pit: Pit light and stop switch; pit access; car clearance and runby; construction of oil buffer; oil buffer oil level gage; oil buffer data plate; spring buffer and data plate; solid bumper; cylinder oil collection; pipes, valves, fittings, and supports; plunger; plunger connection to car; normal stopping device; guard between pits; pit access; illumination; traveling; car frame and platform; and pit construction. 6. Test: Oil buffer; terminal stopping devices; and emergency power operation. 7. Motors: Inspect connections, armature and rotor clearances of the hoist motor and motor generator set: Clean and adjust as necessary to obtain proper operation. 8. Cables: Inspect, lubricate and properly adjust hoist cables, compensating cables, governor cables, and traveling cables to their manufacturer’s

specifications. Check all cable fastenings. Inspect guide rails and counter weights. Check and adjust the slow down and limit switches. Adjust all other items as necessary to obtain proper operation 9. Sheaves: Inspect, clean, and lubricate in accordance with manufacturer’s specifications all deflector, compensating, and top of car sheaves. 10. Clean up and remove all debris from work areas.

Recommended Tools and Materials:

  1. Standard Tools – Basic. 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Out of service signs. 4. Barricades. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 6. Flashlight with a non conductive case for inspecting wire ropes or other equipment where there is insufficient light. 7. 6 ft (2 m) rule of non conductive material. 8. Set of thickness gages. 9. Small hammer, preferably a ½ lb. (0.2 kg) ball peen. 10. Chalk or crayon. 11. Small metal mirror for examining wire ropes or other items normally inaccessible. 12. Non conductive safety hat. 13. Rope caliper. 14. Sheave groove gage. 15. Copy of the latest edition of the ANSI/ASME A17.1 Safety Code for Elevators and Escalators. 16. Copy of the latest edition of the ANSI/ASME A17.2 Inspector’s Manual for Elevators and Escalators. 17. Copy of the latest edition of the Elevator Industry Field Employees’ Safety Handbook. 18. Stop Watch. 19. 50 ft (15 m) non conductive tape. 20. Tachometer, preferably one provided with a 1 ft (305 mm) circumference wheel for measuring speeds, or one that reads directly in feet per minute (meters per second). 21. Meter, to check grounding continuity, correct phasing, and verification of voltages. 22. Spirit level. 23. Door test scale (gage) to check closing door force. 24. Suitable test weights. 25. Suitable light meter for measuring light level in foot-candles (lux).
  2. Pressure gage, preferably one with a maximum scale of twice the working pressure to be tested.

 

 

 

VTRN-ELV-01-01Y: Frequency: Annually
Elevators, Hydraulic
Application:

This standard applies to hydraulically operated passenger and freight elevators. Normally, these elevators are limited to 4 floors or less.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. This elevator inspection guide is adapted from the ANSI/ASME Codes A17.1 and A17.2, hereinafter referred to as the “code.” Refer to these documents for comprehensive instructions on elevator inspections. Adhere to local codes when applicable. 3. Inspectors shall meet the requirements of the ANSI/ASME QEI-1 Standard for the Qualifications of Elevator Inspectors and shall be recognized by GSA. Inspectors and inspection supervisors shall be certified by an ASME accredited organization in accordance with the requirements of ASME QEI-1. Inspections and tests shall be performed by an inspector employed by GSA or by an outside inspector authorized by GSA to perform them. They shall be witnessed by an inspector employed by GSA, or by a qualified person authorized by GSA to witness the tests and inspections on its behalf. Immediately following these inspections and tests, the inspector shall submit to GSA a statement certifying that the inspections and tests have been performed and a report on the results thereof. 4. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 5. Avoid the wearing of loose clothing and neckties during the performance of this inspection. 6. Be at all times vigilant of the location and movement of cars, counterweights, projections, rotating machinery, etc. Note the clearance available when working on top of the car or in the pit. Do not enter any pit containing standing water. 7. Be sure that safety devices are operational before performing any inspection work. 8. The annual inspection of hydraulic elevators includes those designated as periodic in the code. 9. Use energy efficient lighting to the fullest practical extent. 10. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for

asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 11. Comply with state and local codes as applicable.

Check Points, Perform the following in accordance with the elevator code:

  1. Brakes: Completely dismantle brake assembly, clean, and inspect for wear. Replace defective parts required for proper operation. Where brake shoes are asbestos-containing, check for dust, and practice appropriate cleanup and maintenance precautions. Lubricate bearing, pins, and pivot points. 2. Selector: Inspect, clean, lubricate, replace parts, and make repairs or adjustments required for proper operation of selector unit components, including cables, chains, clutches, cams gears, fuses, motor brushes, wiring, connections, contacts, relays, tape, tape tension sheave, broken tape switch and tape wipers. 3. Controller: Thoroughly clean controller with blower or vacuum. Inspect and check the operation of switches, relays, timers, capacitors, resistors, contacts, overloads, wiring, connections, fuses, oil level of overloads and overload settings. Check for MG shutdown, high call reversal, zone control, and load bypass door failure time. Check programming up peak, down peak, off peak, off hours. Replace worn or defective parts and adjust controller for proper operation. 4. Hoist way Doors: Clean, inspect, and lubricate all door operating mechanisms; including but not limited to rollers, upthrusts, interlocks, clutches, self closing, gibs and sills. Replace worn or defective parts, repair and adjust door mechanisms as required for proper operation. 5. Hoist ways: Clean rails, beams, and all related iron work in hoist way. Dust hoist way walls. Clean top, bottom, and sides of car. Clean counterweight and pit area. 6. Hoist Machine and Motor-Generator: Clean with blower or vacuum. Clean end bells, and brush riggings and commutator. Inspect connections, armature and rotor clearances. 7. Buffers: Check oil level and operation of switches. Add oil or adjust switches as necessary for proper operation. Manually compress buffer; test the proper return in accordance with ASME/ANSI A17.1 Safety Code for Elevators and Escalators, Rule 201.4e(1). 8. Scheduling, Dispatch, and Signal Boards: Clean with blower or vacuum. Inspect and check the operation of all switches, relays, timers, fuses, capacitors, resistors, contacts, overloads, wiring and connections. Replace worn or defective parts and adjust for proper operation. 9. Motors: Change oil in hoist motor, motor generator set, geared machines, and gear boxes with lubricants as specified by the equipment manufacturer(s).
  2. Inside of Car: Emergency stop switch; car emergency signal; rated load, platform area capacity and data plate; signs in freight elevator; car enclosure; ventilation of passenger elevators; side emergency exits; car door or gate; car door or gate electric contacts; closed position of car door or gate; power opening of doors or gates; power closing of doors or gates; door reopening device; car floor and landing sill; operating control device; emergency signal device; and car lighting (including emergency). 11. Outside Hoist way: Car platform guard; power closing of hoist way doors; door closing force; sequence operation; hoist way enclosure; hoist way doors; vision panels; hoist way door locking device; elevator parking device; access to hoist way; and emergency doors. 12. Top of Car: Top car clearance and refuge space; stop switch top of car; top car operating device; top car light and outlet; traveling cables and junction; door gate contacts, cams, etc., hangars and connections; hoist way clearances; normal terminal stopping device; top emergency exit; crosshead data plate; construction of hoist way; floor over hoist way; hoist way smoke control; guide rails, fastenings, and alignment; pipe, wiring, and ducts; floor numbers; landing sill guards, projections, and recesses; car frame and stiles; and ant creep leveling device. 13. Machine Room and Machinery Space: Access to machine space; pressure tanks; lighting machine space; ventilation of machine and control space; guards for exposed equipment; control valve; terminal stopping device; pumps; relief and check valve; drives; flexible hose and fittings; tank and oil level; controller wiring fuses, etc.; piping supply line and shutoff. 14. Pit: Pit light and stop switch; pit access; car clearance and runby; construction of oil buffer; oil buffer plunger return; oil buffer oil level gage; oil buffer data plate; spring buffer and data plate; solid bumper; cylinder oil collection; pipes, valves, fittings, and supports; plunger; plunger connection to car; normal stopping device; guard between pits; pit access; illumination; traveling; car frame and platform; and pit construction. 15. Test: Flexible hose and fittings; oil buffer (perform the five year test as necessary); terminal stopping devices; firefighters service; emergency power operation; power door closing force; pressure tank (three year); pressure switch; relief valve setting; static load test; emergency terminal speed limiting device. 16. Safeties: Inspect, clean, lubricate and manually operate safety mechanisms. Replace parts or adjust as necessary. 17. Clean up and remove all debris from work area.

Recommended Tools and Materials:

  1. Standard Tools – Basic.
  2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Out of service signs. 4. Barricades. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 6. Flashlight with a non conductive case for inspecting wire ropes or other equipment where there is insufficient light. 7. 6 ft (2 m) rule of non conductive material. 8. Set of thickness gages. 9. Small hammer, preferably a ½ lb. (0.2 kg) ball peen. 10. Chalk or crayon. 11. Small metal mirror for examining wire ropes or other items normally inaccessible. 12. Non conductive safety hat. 13. Rope caliper. 14. Sheave groove gage. 15. Copy of the latest edition of the ANSI/ASME A17.1 Safety Code for Elevators and Escalators. 16. Copy of the latest edition of the ANSI/ASME A17.2 Inspector’s Manual for Elevators and Escalators. 17. Copy of the latest edition of the Elevator Industry Field Employees’ Safety Handbook. 18. Stop Watch. 19. 50 ft (15 m) non conductive tape. 20. Tachometer, preferably one provided with a 1 ft (305 mm) circumference wheel for measuring speeds, or one that reads directly in feet per minute (meters per second). 21. Meter, to check grounding continuity, correct phasing, and verification of voltages. 22. Spirit level. 23. Door test scale (gage) to check closing door force. 24. Suitable test weights. 25. Suitable light meter for measuring light level in foot-candles (lux). 26. Pressure gage, preferably one with a maximum scale of twice the working pressure to be tested.

 

 

VTRN-ELV-02-06M Frequency: Semi-annually
Elevators, Electric
Application:

This standard applies to electrically operated passenger and freight elevators.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. This elevator inspection guide is adapted from the ANSI/ASME Codes A17.1, Safety Code for Elevators and Escalators, and A17.2, Inspectors’ Manual for Electric Elevators, hereinafter referred to as the “code”. Refer to these documents for comprehensive instructions on elevator inspections. Adhere to local codes when applicable. 3. Inspectors shall meet the requirements of the ANSI/ASME QEI-1 Standard for the Qualifications of Elevator Inspectors and shall be recognized by GSA. Inspectors and inspection supervisors shall be certified by an ASME accredited organization in accordance with the requirements of ASME QEI-1. Inspections and tests shall be performed by an inspector employed by GSA or by an outside inspector authorized by GSA to perform them. They shall be witnessed by an inspector employed by GSA, or by a qualified person authorized by GSA to witness the tests and inspections on its behalf. Immediately following these inspections and tests, the inspector shall submit to GSA a statement certifying that the inspections and tests have been performed and a report on the results thereof. 4. Avoid the wearing of loose clothing and neckties during the performance of this inspection. 5. Be at all times vigilant of the location and movement of cars, counterweights, projections, rotating machinery, etc. Note the clearance available when working on top of the car or in the pit. Do not enter any pit containing standing water. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Be sure that safety devices are operational before performing any inspection work. 8. The semiannual inspection of electric elevators includes those designated as routine in the code. 9. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan.
  2. Comply with state and local codes as applicable.

Check Points, Perform the following in accordance with the elevator code:

  1. Inside of Car: Door reopening device; stop switches; operating control devices; car floor and landing sill; car lighting; car emergency signal; car door or gate; door closing force; power closing of doors or gates; power opening of doors or gates; car vision panels and glass car doors; car enclosure; emergency exit; ventilation; signs and operating device symbols; rated load, platform area, and data plate; standby power operation; restricted opening of car or hoist way doors; and car ride. 2. Machine Room: Lighting and receptacles; housekeeping; ventilation; fire extinguisher; pipes, wiring, and ducts; guarding of exposed auxiliary equipment; numbering of machines and disconnect switches; disconnecting means and control; controller wiring, fuses, grounding, etc.; static control; drive machine brake; traction drive machines; gears and bearings; winding drum machine; belt- or chain-drive machine; motor generator; absorption of regenerated power; AC drives from a DC source; traction sheaves; secondary and deflector sheaves; rope fastenings; terminal stopping devices; slack rope devices; governor, over speed switch, and seal; and car and counterweight safeties. 3. Top of Car: Top-of-car stop switch; car top light and outlet; top-of-car operating device and working platforms; top-of-car clearance and refuge space; top counterweight clearance; car, overhead, and deflector sheaves; normal terminal stopping devices; final terminal stopping devices; broken rope, chain, or tape switch; car leveling devices; top emergency exit; counterweight and counterweight buffer; counterweight safeties; hoist way smoke control; pipes, wiring, and ducts; hoist way clearances; multiple hoist ways; traveling cables and junction boxes; door and gate equipment; car frame and stiles; guide rails fastening and equipment; governor rope; governor releasing carrier; wire rope fastening and hitch plate; suspension rope; and compensating ropes and chains. 4. Outside Hoist way: Car platform guard; hoist way doors; vision panels; hoist way door locking devices; access to hoist way; power closing of hoist way doors; sequence operations; elevator parking devices; emergency doors blind hoist ways; and standby power selection switch. 5. Inspections Made in the Pit: Pit access, lighting, and stop switch, and condition; car and counterweight buffer; final terminal stopping devices; normal terminal stopping devices; traveling cables; governor-rope tension devices; compensating chains, ropes, and sheaves; car frame and platform; and car safeties and guiding members. 6. Motors: Inspect connections, armature and rotor clearances of the hoist motor and motor generator set: Clean and adjust as necessary to obtain proper operation.
  2. Cables: Inspect, lubricate and properly adjust hoist cables, compensating cables, governor cables, and traveling cables to their manufacturer’s specifications. Check all cable fastenings. Inspect guide rails and counter weights. Check and adjust the slow down and limit switches. Adjust all other items as necessary to obtain proper operation 8. Sheaves: Inspect, clean, and lubricate in accordance with manufacturer’s specifications all deflector, compensating, and top of car sheaves. 9. Clean up and remove all debris from work areas.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic. 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Out of service signs. 4. Barricades. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 6. Flashlight with a non conductive case for inspecting wire ropes or other equipment where there is insufficient light. 7. 6 ft (2 m) rule of non conductive material. 8. Set of thickness gages. 9. Small hammer, preferably a ½ lb. (0.2 kg) ball peen. 10. Chalk or crayon. 11. Small metal mirror for examining wire ropes or other items normally inaccessible. 12. Non conductive safety hat. 13. Rope caliper. 14. Sheave groove gage. 15. Copy of the latest edition of the ANSI/ASME A17.1 Safety Code for Elevators and Escalators. 16. Copy of the latest edition of the ANSI/ASME A17.2 Inspector’s Manual for Elevators and Escalators. 17. Copy of the latest edition of the Elevator Industry Field Employees’ Safety Handbook. 18. Stop Watch. 19. 50 ft (15 m) non conductive tape. 20. Tachometer, preferably one provided with a 1 ft (305 mm) circumference wheel for measuring speeds, or one that reads directly in feet per minute (meters per second). 21. Meter, to check grounding continuity, phasing, and voltages. 22. Spirit level. 23. Door test scale (gage) to check closing door force.
  2. Suitable test weights. 25. Suitable light meter for measuring light intensity. 26. Pressure gage, preferably one with a maximum scale of twice the working pressure to be tested. 27. Latest edition of ASME A17.4, Evacuation of Passengers from Stalled Elevators.

 

 

VTRN-ELV-02-01Y Frequency: Annually
Elevators, Electric
Application:

This standard applies to electrically operated passenger and freight elevators.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. This elevator inspection guide is adapted from the ANSI/ASME Codes A17.1, Safety Code for Elevators and Escalators, and A17.2, Inspectors’ Manual for Electric Elevators, hereinafter referred to as the “code”. Refer to these documents for comprehensive instructions on elevator inspections. Adhere to local codes when applicable. 3. Inspectors shall meet the requirements of the ANSI/ASME QEI-1 Standard for the Qualifications of Elevator Inspectors and shall be recognized by GSA. Inspectors and inspection supervisors shall be certified by an ASME accredited organization in accordance with the requirements of ASME QEI-1. Inspections and tests shall be performed by an inspector employed by GSA or by an outside inspector authorized by GSA to perform them. They shall be witnessed by an inspector employed by GSA, or by a qualified person authorized by GSA to witness the tests and inspections on its behalf. Immediately following these inspections and tests, the inspector shall submit to GSA a statement certifying that the inspections and tests have been performed and a report on the results thereof. 4. Avoid the wearing of loose clothing and neckties during the performance of this inspection. 5. Be at all times vigilant of the location and movement of cars, counterweights, projections, rotating machinery, etc. Note the clearance available when working on top of the car or in the pit. Do not enter any pit containing standing water. 6. Be sure that safety devices are operational before performing any inspection work. 7. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 8. The annual inspection of electric elevators are described in the periodic section of the code. 9. Perform the semiannual inspection simultaneously. 10. Comply with state and local codes as applicable. 11. Use energy efficient lighting to the fullest practical extent.
  2. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 13. Comply with state and local codes as applicable.

Check Points, Perform the following in accordance with the elevator code:

  1. Inside of Car: Car lighting; standby power operation. 2. Machine Room: Static control (check and torque all connections to correct specifications, and check and lubricate cooling fan); check primary and secondary voltages phase to phase and phase to ground; winding drum machine; AC drives from a DC source; traction sheaves; terminal stopping devices; slack rope devices; governor, over speed switch, and seal; and car and counterweight safeties. 3. Top of Car: Final terminal stopping devices; and counterweight safeties. 4. Outside Hoist way: Standby power selection switch. 5. Inspections Made in the Pit: Car and counterweight buffer; final terminal stopping devices; normal terminal stopping devices; and car safeties and guiding members. 6. Firefighter’s Service: Operation of elevators under fire and other emergency conditions, A17.1b-1973 through A17.1b-1980; operation of elevators under fire and other emergency conditions, A17.1-1981 through A17.1b-1983; firefighter’s service A17.1-1984 through A17.1a-1988 and A17.3; firefighter’s service A17.1b-1989 and later editions. 7. Brakes: Completely dismantle brake assembly, clean, and inspect for wear. Replace defective parts required for proper operation. Where brake shoes are asbestos-containing, check for dust, and practice appropriate cleanup and maintenance precautions. Lubricate bearing, pins, and pivot points. 8. Selector: Inspect, clean, lubricate, replace parts, and make repairs or adjustments required for proper operation of selector unit components, including cables, chains, clutches, cams gears, fuses, motor brushes, wiring, connections, contacts, relays, tape, tape tension sheave, broken tape switch and tape wipers. 9. Controller: Thoroughly clean controller with blower or vacuum. Inspect and check the operation of switches, relays, timers, capacitors, resistors, contacts, overloads, wiring, connections, fuses, oil level of overloads and overload settings. Check for MG shutdown, high call reversal, zone control, and load bypass door failure time. Check programming up peak, down peak, off peak, off hours. Replace worn or defective parts and adjust controller for proper operation. 10. Hoist way Doors: Clean, inspect, and lubricate all door operating mechanisms; including but not limited to rollers, upthrusts, interlocks, clutches, self closing,

gibs and sills. Replace worn or defective parts, repair and adjust door mechanisms as required for proper operation. 11. Hoist ways: Clean rails, beams, and all related iron work in hoist way. Dust hoist way walls. Clean top, bottom, and sides of car. Clean counterweight and pit area. 12. Hoist Machine and Motor-Generator: Clean with blower or vacuum. Clean end bells, and brush riggings and commutator. Inspect connections, armature and rotor clearances. 13. Buffers: Check oil level and operation of switches. Add oil or adjust switches as necessary for proper operation. Manually compress buffer; test the proper return in accordance with ASME/ANSI A17.1 Safety Code for Elevators and Escalators, Rule 201.4e(1). 14. Scheduling, Dispatch, and Signal Boards: Clean with blower or vacuum. Inspect and check the operation of all switches, relays, timers, fuses, capacitors, resistors, contacts, overloads, wiring and connections. Replace worn or defective parts and adjust for proper operation. 15. Motors: Change oil in hoist motor, motor generator set, geared machines, and gear boxes with lubricants as specified by the equipment manufacturer(s). 16. Safeties: Inspect, clean, lubricate and manually operate safety mechanisms. Replace parts or adjust as necessary. 17. Clean up and remove all debris from work area.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic. 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Out of service signs. 4. Barricades. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE. 6. Flashlight with a non conductive case for inspecting wire ropes or other equipment where there is insufficient light. 7. 6 ft (2 m) rule of non conductive material. 8. Set of thickness gages. 9. Small hammer, preferably a ½ lb. (0.2 kg) ball peen. 10. Chalk or crayon. 11. Small metal mirror for examining wire ropes or other items normally inaccessible. 12. Non conductive safety hat. 13. Rope caliper. 14. Sheave groove gage.
  2. Copy of the latest edition of the ANSI/ASME A17.1 Safety Code for Elevators and Escalators. 16. Copy of the latest edition of the ANSI/ASME A17.2 Inspector’s Manual for Elevators and Escalators. 17. Copy of the latest edition of the Elevator Industry Field Employees’ Safety Handbook. 18. Stop Watch. 19. 50 ft (15 m) non conductive tape. 20. Tachometer, preferably one provided with a 1 ft (305 mm) circumference wheel for measuring speeds, or one that reads directly in feet per minute (meters per second). 21. Meter, to check grounding continuity, correct phasing, and verification of voltages. 22. Spirit level. 23. Door test scale (gage) to check closing door force. 24. Suitable test weights. 25. Suitable light meter for measuring light level in foot-candles (lux).

VTRN-ELV-02-05Y Frequency: 5-Year
Elevators, Electric
Application:

This standard applies to electrically operated passenger and freight elevators.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. This elevator inspection guide is adapted from the ANSI/ASME Codes A17.1, Safety Code for Elevators and Escalators, and A17.2, Inspectors’ Manual for Electric Elevators, hereinafter referred to as the “code”. Refer to these documents for comprehensive instructions on elevator inspections. Adhere to local codes when applicable. 3. Inspectors shall meet the requirements of the ANSI/ASME QEI-1 Standard for the Qualifications of Elevator Inspectors and shall be recognized by GSA. Inspectors and inspection supervisors shall be certified by an ASME accredited organization in accordance with the requirements of ASME QEI-1. Inspections and tests shall be performed by an inspector employed by GSA or by an outside inspector authorized by GSA to perform them. They shall be witnessed by an inspector employed by GSA, or by a qualified person authorized by GSA to witness the tests and inspections on its behalf. Immediately following these inspections and tests, the inspector shall submit to GSA a statement certifying that the inspections and tests have been performed and a report on the results thereof. 4. Avoid the wearing of loose clothing and neckties during the performance of this inspection. 5. Be at all times vigilant of the location and movement of cars, counterweights, projections, rotating machinery, etc. Note the clearance available when working on top of the car or in the pit. Do not enter any pit containing standing water. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Be sure that safety devices are operational before performing any inspection work. 8. The 5 year inspection of electric elevators are described in the periodic section of the code. 9. Perform the semiannual and annual inspection simultaneously. 10. Comply with state and local codes as applicable.

Check Points, Perform the following in accordance with the elevator code:

  1. Inside of Car: Power opening of doors or gates; standby power operation. 2. Machine Room: Traction sheaves; terminal stopping devices;
  2. Top of Car: Counterweight safeties. 4. Inspections Made in the Pit: Car and counterweight buffer.

Recommended Tools, Materials, and Equipment:

  1. Flashlight with a non conductive case for inspecting wire ropes or other equipment where there is insufficient light. 2. 6 ft (2 m) rule of non conductive material. 3. Set of thickness gages. 4. Small hammer, preferably a ½ lb. (0.2 kg) ball peen. 5. Chalk or crayon. 6. Small metal mirror for examining wire ropes or other items normally inaccessible. 7. Non conductive safety hat. 8. Rope caliper. 9. Sheave groove gage. 10. Copy of the latest edition of the ANSI/ASME A17.1 Safety Code for Elevators and Escalators. 11. Copy of the latest edition of the ANSI/ASME A17.2 Inspector’s Manual for Elevators and Escalators. 12. Copy of the latest edition of the Elevator Industry Field Employees’ Safety Handbook. 13. Stop Watch. 14. 50 ft (15 m) non conductive tape. 15. Tachometer, preferably one provided with a 1 ft (305 mm) circumference wheel for measuring speeds, or one that reads directly in feet per minute (meters per second). 16. Meter, to check grounding continuity, correct phasing, and verification of voltages. 17. Spirit level. 18. Door test scale (gage) to check closing door force. 19. Suitable test weights. 20. Suitable light meter for measuring light level in foot-candles (lux).

VTRN-ELV-03-01W Frequency: Weekly
Elevators, Electric or Hydraulic
Application:

This standard applies to all elevators, electric or hydraulic types (4 floors or less).

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Review manufacturer’s instructions. 3. Comply with state and local codes as applicable.

Check Points:

  1. Inspected the following equipment looking for proper operation. a. motor-generator unit b. hoist machine c. controls and governor d. Doors, door hangers, closers, interlocks and door operators

Items requiring attention should be reported to the elevator shop supervisor or elevator contractor.

  1. Emergency Items: Check that emergency procedure sign is in place and inspection certificate is current and visible (or filed in buildings manager’s office). 3. Clean up and remove all debris from work areas.

Recommended Tools and Materials:

  1. Standard Tools – Basic. 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE).

 

VTRN-ELV-03-01M Frequency: Monthly
Elevators, Electric or Hydraulic
Application:

This standard applies to all elevators, electric or hydraulic types.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Items requiring attention should be reported to the elevator shop supervisor or elevator contractor. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 5. Comply with state and local codes as applicable.

Check Points:

  1. Machine Room: Dust drive machines, motor generator sets, and control cabinets. Sweep floor, re-lamp inoperative machine room lights and remove trash. Inspect controllers, signal, scheduling and dispatch panels, selectors and selector tapes. Make maintenance adjustments necessary for proper operation. 2. Pits: Dust ironwork, sweep floor, empty drip pans, re-lamp inoperative lights, remove trash and check for leaks. Check run-by, buffer switch, compensating switch and emergency stop switch. Make maintenance adjustments necessary for proper operation. 3. Motors; hoist motor, motor generator and regulators: Inspect oil level, oil pick up and belts. Make maintenance adjustments necessary for proper operation. Check for excessive heat, noise and leaks. Lubricate in accordance with manufacturer’s specification. Renew brushes as necessary for proper operation. Keep end bells, commutators and brush riggings clean. 4. Geared Machines: Inspect worm and gear for bottoming and backlash, thrust end play, bearing wear, oil pick up, oil level and packing. Check for leaks and empty drip pan. Renew brushes as necessary. Keep end bells, commutators and brush riggings clean. 5. Brakes: Observe operation of brake. Inspect drum and shoe clearance and adjust as necessary for proper operation. Clean and lubricate pivot points. Where brake shoes are asbestos-containing, check for dust, and practice appropriate cleanup and maintenance precautions.
  2. Car Gate: Clean, lubricate and inspect hangers and all related gate operating mechanisms. Check rollers, up-thrust, interlock, gear box, motor brushes, door control box, cables, safety edge, light rays, gibs, sills, proper operating speed and force close speed. Make maintenance adjustments necessary for proper operation. 7. Speed Governor: Observe operation, including tension sheave. Check electrical switches for proper operation; check that inspection seals are in place and not broken. Clean and lubricate pivot points. 8. Lighting: Re-lamp all inoperative lamps located in lamp hatchway, hall landings, position indicators, car stations, dome, and wherever else required. Clean light diffusers and car stations. 9. Hydraulic Machines: Observe operation of motor and pump, oil lines, tank, controls, plunger and packing. Adjust as necessary for proper operation. Correct excessive creeping. Test manual and emergency control. Clean and lubricate as necessary. Check for and repair leaks on oil lines, tank, and packing. Test manual and emergency control. Clean and lubricate all equipment as necessary for proper operation. 10. Emergency Items: Check that emergency procedure sign is in place and inspection certificate is current and visible (or filed in buildings manager’s office). Check top and side exits and related switches for proper operation. Test alarm bell, emergency stop switch, communications system, fire recall service (key capture, minimum one floor run on Phase II), and any other emergency recall features. Repair, replace, and adjust parts and equipment as necessary to insure operation in accordance with the manufacturer’s specifications. Document each test performed, including the date and results of each test. 11. Clean up and remove all debris from work areas.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic. 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Out of service signs. 4. Barricades. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

VTRN-ELV-03-03M Frequency: Quarterly
Elevators, Electric or Hydraulic

Application:

This standard applies to all elevators, electric or hydraulic types (4 floors or less).

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Items requiring attention should be reported to the elevator shop supervisor or elevator contractor. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Use energy efficient lighting to the fullest practical extent. 5. If materials to be worked on are known or suspected to contain asbestos, check the building’s asbestos management plan to see if they have been tested for asbestos. If they are suspect but have not been tested, have them tested. Manage asbestos in accordance with the plan. 6. Comply with state and local codes as applicable.

Check Points:

  1. Guides: Inspect, clean, lubricate, and properly adjust all roller guides, guide shoes, and rail oilers. 2. Car Tops: Remove all dirt, dust, and oil. Clean and lubricate fans. 3. Emergency Lighting: Check the operation of the emergency lights; replace as necessary. 4. Solid State Components and Circuit Boards: Inspect printed circuit board and other solid state devices for cleanliness, condensation spots, evidence of heating and deterioration. Check and replace defective solid state devices. 5. Leveling: Inspect leveling operation. Clean and lubricate switches, vanes, and all other related parts. Adjust to obtain the proper leveling at all landings in both the UP and DOWN directions within ¼ inch above or below the landing sill. 6. Clean up and remove all debris from work area.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic. 2. Cleaning supplies and materials. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Out of service signs.
  2. Barricades. 5. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

VTRN-ESC-01-01W Frequency: Weekly
Escalator
Application:

This weekly maintenance standard applies to passenger escalators.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. Set up a barricade at the escalator entry point. Use signs to direct passengers to stairs. Once escalator is vacant, set up another barricade at the exit point, and stop the escalator. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Comply with state and local codes as applicable. This escalator and moving walk inspection guide is adapted from the ANSI/ASME Codes A17.1 and A17.2, hereinafter referred to as the “code.” Refer to these documents for comprehensive instructions on elevator inspections. Comply also with all state, county, city, and town codes.

Check Points, Perform the following in accordance with the elevator code:

  1. Ride escalator. Check operation for smoothness, unusual vibration or noise, condition of handrails, etc. 2. De-energize, tag and lockout the electrical circuit. 3. Inspect comb plates at both ends of escalator for broken teeth and check for proper clearance between combs and step teeth and check for broken step treads. 4. Check clearance between steps and skirt panel. Look for anything (loose trim, screws or bolts) that could snag or damage clothing or cause injury. Check operation of handrail brushes. 5. Clean escalator machine space. 6. Clean and lubricate step rollers, step chain, drive gears or chains, handrail drive chains, etc., according to manufacturer’s instructions. Observe gears and chains for signs of wear, misalignment, etc. Adjust as required. 7. Check motor for signs of overheating; clean excess grease. 8. Inspect controller for loose leads, burned contacts, etc. Repair as required. Clean excess grease and interior of controller. Check for loose connections. 9. Clean handrails as required. 10. Check escalator lighting. Replace bulbs as required. 11. Operate each emergency stop button and note that the escalator stops. If the escalator has the capabilities of running in both directions, stop buttons should function properly for each direction of travel. Observe the stopping distance.
  2. Clean up and remove all debris from work area. 13. Remove barricades and place escalator back into service.

Recommended Tools, Materials, and Equipment:

  1. Standard Tools – Basic. 2. Lubricants. Consult the Material Safety Data Sheet (MSDS) for hazardous ingredients and proper Personal Protective Equipment (PPE). 3. Cleaning supplies and materials. Consult the MSDS for hazardous ingredients and proper PPE. 4. Barricades, ropes.

VTRN-ESC-01-01Y Frequency: Annually
Escalator (and Moving Walkway)

Application:

This standard applies to escalators and moving walkways.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered to. 2. This escalator and moving walk inspection guide is adapted from the ANSI/ASME Codes A17.1 and A17.2, hereinafter referred to as the “code.” Refer to these documents for comprehensive instructions on elevator inspections.. 3. Inspectors shall meet the requirements of the ANSI/ASME QEI-1 Standard for the Qualifications of Elevator Inspectors and shall be recognized by GSA. Inspectors and inspection supervisors shall be certified by an ASME accredited organization in accordance with the requirements of ASME QEI-1. Inspections and tests shall be performed by an inspector employed by GSA or by an outside inspector authorized by GSA to perform them. They shall be witnessed by an inspector employed by GSA, or by a qualified person authorized by GSA to witness the tests and inspections on its behalf. Immediately following these inspections and tests, the inspector shall submit to GSA a statement certifying that the inspections and tests have been performed and a report on the results thereof. 4. Avoid the wearing of loose clothing and neckties during the performance of this inspection. 5. Be at all times vigilant of the location and movement of cars, counterweights, projections, rotating machinery, etc. Note the clearance available when working on around this equipment. 6. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 7. Be sure that safety devices are operational before performing any inspection work. 8. Set up a barricade at the escalator entry point. Use signs to direct passengers to stairs. Once escalator is vacant, set up another barricade at the exit point, and stop the escalator. 9. Comply with state and local codes as applicable.

Check Points, Perform the following in accordance with the elevator code:

  1. Speed Governors. Where a speed governor is required, test by manually operating the trip mechanism.
  2. Escalator Broken Step-Chain Device. Test the broken step-chain device by operating it manually. 3. Broken Drive-Chain Devices. Test the broken drive-chain device by operating the actuating mechanism manually. 4. Moving Walk Broken Treadway Devices. Test by manually operating the actuating device. 5. Stop Switches. Test all stop switches, including those located in machine spaces, and all mainline disconnect switches for proper operation. 6. Fire Shutters. Test the fire shutters to verify that their operation will stop the escalator or moving walk. If power operated. the force and reversing requirements must be met. 7. Escalator Skirt-Obstruction Devices. These devices are to be manually operated by simulating an actual obstruction. 8. Brakes. Test the operation of the electrically released brake by manually operating the other safety devices and observing. 9. Starting Switches. Test for proper operation and type. 10. Escalator Reversal Stop Devices. Inspect and test operation. 11. Escalator Step Upthrust Devices. Test by manually displacing the step, which should cause the device to operate. 12. Remove steps as required to provide clear access to escalator pan and place steps on tarp. 13. Thoroughly clean escalator, working from top to bottom. 14. Clean all tracks and check for wear or rippling. File tracks as required. Check all step and chain rollers. Adjust step and chain roller upthrust as required. Adjust transfer bars or guides or replace as necessary. 15. Remove upper panel on each side of escalator, taking care not to scratch or gouge panel. Check handrail tension device and handrail drive assembly. Clean, adjust and lubricate as required. 16. Check operation of all safety devices, including skirt switches, handrail switches, broken chain switches, lower unit tension devices, etc. 17. Follow manufacturer’s recommendations for lubrication. 18. Perform annual work as prescribed by the manufacturer. 19. Re-assemble entire unit, thoroughly cleaning steps and check for broken treads as they are replaced. Check entire unit for proper running clearances. Re-shim steps as required. 20. After work has been completed, perform periodic inspection and complete the Certificate of Inspection. 21. Remove barricades and place escalator back into service.

Recommended Tools, Materials, and Equipment:

  1. Flashlight with a non conductive case for inspecting wire ropes or other equipment where there is insufficient light. 2. 6 ft (2 m) rule of non conductive material. 3. Set of thickness gages. 4. Small hammer, preferably a ½ lb. (0.2 kg) ball peen. 5. Chalk or crayon.
  2. Small metal mirror for examining wire ropes or other items normally inaccessible. 7. Non conductive safety hat. 8. Rope caliper. 9. Sheave groove gage. 10. Copy of the latest edition of the ANSI/ASME A17.1 Safety Code for Elevators and Escalators. 11. Copy of the latest edition of the ANSI/ASME A17.2 Inspector’s Manual for Elevators and Escalators. 12. Copy of the latest edition of the Elevator Industry Field Employees’ Safety Handbook. 13. Stop Watch. 14. 50 ft (15 m) non conductive tape. 15. Tachometer, preferably one provided with a 1 ft (305 mm) circumference wheel for measuring speeds, or one that reads directly in feet per minute (meters per second). 16. Meter, to check grounding continuity, correct phasing, and verification of voltages. 17. Spirit level. 18. Door test scale (gage) to check closing door force. 19. Suitable test weights. 20. Suitable light meter for measuring light level in foot-candles (lux). 21. Pressure gage, preferably one with a maximum scale of twice the working pressure to be tested. 22. Barricades, ropes.
    VTRN-WLF-01-01M Frequency: Monthly
    Wheel Chair Lift
    Application:

This standard card applies to wheelchair lifts, normally found at entrances and in entrance lobbies of various public buildings.

Special Instructions:

  1. In addition to the procedure(s) outlined in this standard, the equipment manufacturer’s recommended maintenance procedure(s) and/or instruction(s) shall be strictly adhered. 2. Review manufacturer’s instructions for all system components. 3. Follow lock out/tag out procedures at all times. De-energize or discharge all hydraulic, electrical, mechanical, or thermal energy prior to beginning work. 4. Disconnect, tag, and lock out electric circuits serving the unit. 5. Set up a barricade at the lift entry point.

Check Points:

  1. Thoroughly clean the drive assembly, lift platform, travel area, etc. Remove trash and debris. 2. Inspect structural features, framework, support members, anchor bolts, lift platform, etc., for condition and structural integrity. Tighten any loose bolts or screws. 3. Lubricate screw mechanisms, gears, sprockets and chains, pillow blocks, bearings, etc., as required. 4. Check condition of drive chains or belts and adjust or replace as required. 5. Operate lift through its full range of travel, in both directions, using a load if possible. Note operation of controls, safety devices, leveling, and other devices or features.

Recommended Tools, Materials, and Equipment:

  1. Standard tools – basic 2. Cleaning equipment and materials. Consult the Material Safety Data Sheets (MSDS) for hazardous ingredients and proper personal protective equipment (PPE). 3. Lubricants. Consult the MSDS for hazardous ingredients and proper PPE.

APPENDICES

 

Appendix A: NETA Qualifications, Responsibilities and Safety

The 2011 International Electrical Testing Association (NETA) Maintenance Testing Specifications will be used as the guide for all Electrical Testing procedures. By reference, the NETA requirements for Qualifications, Responsibilities and Safety for test procedures have been included in this Appendix and are to be followed in the performance of maintenance on all electrical systems.

From the 2011 International Electrical Testing Association (NETA) Maintenance Testing Specifications, the following sections will be included for testing requirements (Note: section numbers may change as part of the 2011 guide):

  1. QUALIFICATIONS OF TESTING ORGANIZATION AND PERSONNEL
    4. DIVISION OF RESPONSIBILITY
    5. GENERAL

 

  1. QUALIFICATIONS OF TESTING ORGANIZATION AND PERSONNEL 3.1 Testing Organization 1. The testing organization shall be an independent, third-party entity which can function as an unbiased testing authority, professionally independent of the manufacturers, suppliers, and installers of equipment or systems being evaluated. 2. The testing organization shall be regularly engaged in the testing of electrical equipment devices, installations, and systems. 3. The testing organization shall use technicians who are regularly employed for testing services. 4. An organization having a “Full Membership” classification issued by the International Electrical Testing Association meets the above criteria. 5. The testing organization shall submit appropriate documentation to demonstrate that it satisfactorily complies with these requirements.

3.2. Testing Personnel 1. Technicians performing these electrical tests and inspections shall be trained and experienced concerning the apparatus and systems being evaluated. These individuals shall be capable of conducting the tests in a safe manner and with complete knowledge of the hazards involved. They must evaluate the test data and make a judgment on the continued serviceability or nonserviceability of the specific equipment. 2. Technicians shall be certified in accordance with ANSI/NETA ETT, Standard for Certification of Electrical Testing Personnel. Each on-site crew leader shall hold a current certification, Level III or higher, in electrical testing. 3. The Contractor shall provide documentation to the CO or designee on qualifications identified in this standard. Certification can be obtained through; ANSI/NETA Certification program (http://www.netaworld.org/press-release/251 ) or Electrical Testing Technician Certification Institute ( http://www.ettci.org/).

  1. DIVISION OF RESPONSIBILITY 4.1 The User The user shall be responsible for all power switching of equipment and for providing equipment in a ready-to-test condition. The user shall provide the testing organization with the following: 1. A short-circuit analysis, a coordination study, an arc-flash hazard analysis, and a protective device setting sheet as described in Section 6, if applicable. 2. The most current set of electrical drawings and instruction manuals applicable to the scope of work relative to the equipment under test. 3. An itemized description of equipment to be inspected and tested. 4. A determination of who shall provide a suitable and stable source of electrical power to each test site. 5. Notification of when equipment becomes available for maintenance tests. Work shall be coordinated to expedite project scheduling. 6. Site-specific hazard notification and safety training.

4.2 The Testing Organization The testing organization shall provide the following: 1. All field technical services, tooling, equipment, instrumentation, and technical supervision to perform such tests and inspections. 2. Specific power requirements for test equipment. 3. Notification to the user prior to commencement of any testing. 4. A timely notification of any system, material, or workmanship which is found deficient on the basis of maintenance tests. 5. A record of all tests and a final report.

  1. GENERAL 5.1 Safety and Precautions All parties involved must be cognizant of industry-standard safety procedures. This document does not include any procedures, including specific safety procedures. It is recognized that an overwhelming majority of the tests and inspections recommended in these specifications are potentially hazardous. Individuals performing these tests shall be capable of conducting the tests in a safe manner and with complete knowledge of the hazards involved.
  2. Safety practices shall include, but are not limited to, the following requirements: a. All applicable provisions of the Occupational Safety and Health Act, particularly OSHA 29CFR 1910. b. ANSI/NFPA 70E, Standard for Electrical Safety in the Workplace c. The Electrical Safety Program Book, Kenneth G. Mastrullo, Ray A. Jones, Jayne G. Jones, NFPA. d. Applicable state and local safety operating procedures. e. Owner’s safety practices. 2. A safety lead person shall be identified prior to commencement of work. 3. A safety briefing shall be conducted prior to the commencement of work. 4. All tests shall be performed with the apparatus de-energized and grounded except where otherwise specifically required to be ungrounded or energized for certain tests. 5. The testing organization shall have a designated safety representative on the project to supervise operations with respect to safety. This individual may be the same person described in 5.1.2.

5.2 Suitability of Test Equipment 1. All test equipment shall meet the requirements in Section 5.3 and be in good mechanical and electrical condition. 2. Field test metering used to check power system meter calibration must be more accurate than the instrument being tested. 3. Accuracy of metering in test equipment shall be appropriate for the test being performed. 4. Waveshape and frequency of test equipment output waveforms shall be appropriate for the test and the tested equipment.

5.3 Test Instrument Calibration 1. The testing organization shall have a calibration program which assures that all applicable test instruments are maintained within rated accuracy for each test instrument calibrated. 2. The firm providing calibration service shall maintain up-to-date instrument calibration instructions and procedures for each test instrument calibrated. 3. The accuracy shall be directly traceable to the National Institute of Standards and Technology (NIST).

  1. Instruments shall be calibrated in accordance with the following frequency schedule: a. Field instruments: Analog, 6 months maximum. Digital, 12 months maximum. b. Laboratory instruments: 12 months maximum. c. Leased specialty equipment: 12 months maximum. 5. Dated calibration labels shall be visible on all test equipment. 6. Records, which show date and results of instruments calibrated or tested, must be kept up-to-date. 7. Calibrating standard shall be of higher accuracy than that of the instrument tested.

5.4 Test Report 1. The test report shall include the following: a. Summary of project. b. Description of equipment tested. c. Description of tests. d. Test data. e. Analysis and recommendations. 2. Test data records shall include the following minimum requirements: a. Identification of the testing organization. b. Equipment identification. c. Humidity, temperature, and other conditions that may affect the results of the tests/calibrations. d. Date of inspections, tests, maintenance, and/or calibrations. e. Identification of the testing technician. f. Indication of inspections, tests, maintenance, and/or calibrations to be performed and recorded. g. Indication of expected results when calibrations are to be performed. h. Indication of “as-found” and “as-left” results, as applicable. i. Sufficient spaces to allow all results and comments to be indicated. 3. The testing organization shall furnish a copy or copies of the complete report to the owner as specified in the maintenance testing contract.

 

Appendix B: NETA Electrical Test Frequencies

The 2011 American National Standards Institute / International Electrical Testing Association (NETA) Maintenance Testing Specifications ANSI/NETA MTS-2011 has been used as the guide for all Electrical Testing procedures. By reference, the ANSI/NETA MTS-2011 requirements for Frequency of Maintenance Tests have been included in this Appendix and are to be followed in the performance of maintenance on all electrical systems.

Frequency of Maintenance Tests

NETA recognizes that the ideal maintenance program is reliability-based, unique to each plant and to each piece of equipment. In the absence of this information and in response to requests for a maintenance timetable, NETA’s Standards Review Council presents the following time-based maintenance schedule and matrix.

One should contact a NETA Full-Member company for a reliability-based evaluation.

The following matrix is to be used in conjunction with NETA’s Frequency of Maintenance Tests table. Application of the matrix is recognized as a guide only. Specific condition, criticality, and reliability must be determined to correctly apply the matrix. Application of the matrix, along with the culmination of historical testing data and trending, should provide a quality electrical preventive maintenance program.

Job Order Contracting Software

Job Order Contracting Software and more!

Building in Cloud (BiC) and the 4BT-PE/4BT-CE modules support LEAN COLLABORATIVE OpenJOC(TM) Job Order Contract via  Software as a Service (SaaS).

Owners and builders simply need a broadband Internet connection, a current web browser, and appropriate security settings to enable use of all system capabilities.

While BiC is designed to be compatible with all major browsers, we recommend the use of Google Chrome to access all the system capabilities.

BiC is also designed to work with tablets and other hand-held devices.

4BT OpenJOC tools, training, and data help medium and large organizations to significantly improve productivity, reduce costs, and increase value received by all participants via the implementation of LEAN collaborative processes and a common data environment (CDE).

The experience and history o the 4BT team, gives you access to the latest LEAN Job Order Contracting techniques and technologies, as well as our exclusive locally researched, fully transparent and verifiable OpenJOC Unit Price Book (TM).

Job Order Contracting Software

Program Management, Project Management, Estimate Management, Document Management, Asset Management and Facility Management are included.  Information is always up to date and available, wherever you are, to allow you to make the right decision at the right time.  Unlike traditional systems, there is no need to worry if you have the most current document or not!

Buildings geolocation

Building in Cloud allows you to rapidly locate your property using Google Maps and immediately access all the information and documentation that you need.

 

Job Order Contracting Software

Drive consistency and higher productivity across your real property portfolio for the numerous tasks to be performed for specific projects and buildings.

Documents management

The Document Management module lets you manage and share files, while keeping a record of all reviews and uploaded documentation throughout the entire life-cycle of the building.

Upload and share documents and make them available to your whole team – including PDF, Word and Excel files, images and videos.

Project management

Measurably  improve your organization’s construction project management activities with Building in Cloud’s powerful tools such as: Team management; Tasks & Issue management; Notifications & Messages.

Job Order Contracting Software

Asset management

The Asset Information Model manager lets you keep track of multiple asset classes: office equipment, furniture, laboratory equipment, facilities, etc..
Assets and components are easily imported into your building from BIM models, from excel files or manually.

Job Order Contracting Software

 

Measure and monitor

Building in Cloud enables you to create a wide range of reports, allowing you to have greater visibility into the status of your projects, properties, and their components.
Reports are available as downloadable PDFs or as spreadsheets.

 

And that is just the start… learn more about 4BT OpenJOC Job Order Contracting Software…

 

Empowering Owners with On-Demand Quality, On-Time, On-Budget Facilities Repair, Renovation, & Construction

Empowering Owners with On-Demand Quality, On-Time, On-Budget Facilities Repair, Renovation, & Construction is what we do each and every day.

LEAN construction delivery, specifically the OpenJOC(TM) Job Order Contracting Solution measurably repair, renovation, and construction outcomes.   Whether your responsible for a facilities portfolio in higher education, secondary education, federal/state/county/local government, healthcare, or transportation, you can assure significantly better outcomes for building users, your management, and your construction service providers.

4BT provides solutions to manage facilities repair, renovation, and construction throughout the project life-cycle, from concept through warranty and beyond.

We connect owner and contractor procurement and technical teams, as well as building users and other stakeholders, transforming inefficient and antagonistic design-bid-built methods into collaborative, informed, compliant, and consistently superior\ best value LEAN construction processes.

DEMING2018LEAN

It’s important to understand that LEAN construction is a journey.  On that begins with an understanding of where your organization current stands, and where it plans to be in the future.

Get the most out of your facilities management budget by leveraging our LEAN construction knowledge, training, technical support, locally researched detailed unit price cost data, and advanced collaborative cloud technology.

Job Order Contracting Solution

We support our customers throughout their journey to ensure full benefits and adoption all the way from the discovery and planning phases through implementation, training, and beyond.

Get our free e-Book… or contact us to learn more.   info@4bt.us

Improving Construction Productivity

Improving construction productivity is key to better economic and environmental outcomes.   That said, the United States has made virtually no progress.

Construction Productivity

Any real property owner can reverse this trend by demonstrating leadership and adopting LEAN construction delivery methods.

The OpenJOC(TM) LEAN Job Order Contracting solutions enables on-demand repair, renovation, and minor new construction to be consistently completed on-time and on-budget.  Key characteristics and elements of OpenJOC LEAN Job Order Contracting include…
  • Building long-term, mutually beneficial owner-builder relationships based upon mutual trust and respects as well as shared risk and reward
  • Required collaboration and support among all participants and stakeholders.
  • Financial and technical transparency via a locally researched detailed unit price book
  • Initial and ongoing training
  • Continuous improvement
  • Key performance indicators (KPIs)

Job Order Contracting Solution

Learn more…  info@4bt.us

 

Role of an Owner JOC Program Manager

A critical role of a Owner JOC Program Manager is the ability to review and negotiate JOC Contractor Estimates.   This is true for all Public Sector Owners, Federal/State/County/Municipal, Transportation Agencies, Healthcare, Education… as it is their fiduciary responsibility to assure that funds are being allocated as efficiently as possible with respect to associated repair, renovation, or minor new construction projects.

Cost estimating and budgeting recommend practice –  ‘A structured, if not formal, review process is a best practice’ – Association for Advancement of Cost Engineering International, AACEI – Recommended Practice No. 31R-03, May 12, 2009

Here are just a few of the tasks that an owner JOC program manager must perform to assure a fair and reasonable price is being charged by the JOC contractor, scope of work is correct, and that adequate funds are available.

The actual technical review of a cost estimate submitted by a JOC Contractor may be done by in-house estimators or owner’s representatives/consultants with appropriate capabilities and business relationships.

Note:  It’s also a best practice for any Owner to require an internal estimate for projects above a specified dollar threshold.  This is mandatory in the case of Federal Owners.

The JOC Program manager, in-house estimator, or owner’s representative estimator, should, at a minimum, do the following tasks,

  • Assure estimate is in concert with the project scope of work established by the owner in terms of intent and completeness.
  • Verify use of appropriate UPB and appropriate UPB line items and note, as well as calculate total of any non-UPB line items.  Approve or disallow are appropriate.
  • Verify quantities.
  • Verify appropriate line item modifiers are being used.
  • Verify appropriate documentation and mark-ups for any non-UPB line items.
  • Verify the appropriate JOC contractor’s co-efficient is being used.
  • Negotiate line items with the JOC contractor as needed.

Learn more about JOC Program, Project, Estimate, and Document Management…

 

OpenJOC BMPs

LEAN Construction Project Delivery and Facilities Operations, Maintenance, and Life-cycle Management

LEAN METHODOLOGY

LEAN methodology was first introduced by Henry Ford, later expanded by Toyota, and subsequently adopted by numerous manufacturing and service sectors.

An understanding of LEAN fundamentals and their application to O&M and overall Facilities Management is of great benefit to all participants and stakeholders.

LEAN methodology involves the consistent application of business processes and workflows in support best value outcomes.  Shared characteristics of LEAN processes include:

  • Early and ongoing collaboration among all participants and stakeholders
  • Focus upon client requirements and best value outcomes
  • Clearly defined and documented roles, responsibilities, workflows
  • Shared, performance-based risk/reward
  • Decision support based upon current and actionable information
  • Common terms, definitions, & data formats — Common data environment (CDE)
  • Mutual trust and respect among participants
  • Continuous improvement the O&M Plan and associated processes

Specific to O&M, LEAN practices help provide a framework to integrate and maximize the capabilities of available people, processes, information, and technology to address ongoing facilities requirements, (see below figures).  Promoting awareness and education with respect to LEAN O&M best management practices would drive significantly improved outcomes.

Figure 3.  LEAN Practices for Optimized Facilities O&M Overview

LEAN Practices for Optimized Facilities O&M Overview

Figure 4. LEAN Practices Asset Competency Model

LEAN Practices Asset Competency Model

Figure 5. LEAN Considerations

LEAN Considerations

MULTIPLE COMPETENCIES, BUSINESS PROCESSES, AND ACTIVITIES

Facilities O&M management spans multiple competencies (core skills), business processes (asset management practices/industries), and activities:

Competencies/Activities

  • Strategic planning
  • Cost estimating
  • Procurement/bidding
  • Construction
  • Space planning
  • Operations
  • Maintenance
  • Programming

Business Processes

  • Capital planning and management
  • Construction project delivery methodology
  • Space management
  • Operations & Maintenance
  • Inventory and maintenance disposition management
Figure 6.  Life-cycle Management

Life-cycle Management

NOTE: The term “Big Data” has recently become popular to describe the multiple sources, formats, and uses of data that can be leveraged to monitor and improve organizational performance. The Construction Operations Building information exchange (COBie) has become one of the most widely known data formats. COBie is an information exchange specification for the life-cycle capture and delivery of information needed by facility managers. It can be viewed in design, construction, and maintenance software as well as in simple spreadsheets. Other data formats include MasterFormat, Uniformat, and Omniclass.

SUPPORTING TECHNOLOGY AND TOOLS

Technology and tools used to lower the cost of implementing and managing LEAN O&M best management practices (BPMs) include the following:

Technologies

  • Application Software
  • Building Automation Systems (BAS)
  • Building Information Modeling (BIM) (Model & Management Systems) Capital Planning and Management Systems (CPMS)
  • Computer-aided Facilities Management Systems (CAFM)
  • Computerized Maintenance Management Systems (CMMS)
  • Cost Estimating, Procurement, & Construction Project Delivery and Management Systems
  • Geographical Information Systems (GIS)
  • Integrated Workplace Management Systems (IWMS)

Tools

  • Construction code databases
  • Construction cost databases
  • Industry specific glossaries
  • Industry Standards (ISO, NIST)
  • O&M Plan
  • O&M Manuals
  • Standardized data architectures (Cobie, Masterformat, Uniformat, Omniclass)
  • Technical construction specifications

EDUCATION, TRAINING, AND SUPPORT SERVICES

Building the capabilities of internal and external O&M teams involves an ongoing commitment to education and training. From an educational standpoint, both traditional educational institutions and ongoing professional education are increasing their focus upon life-cycle management and the role of O&M.

The need for and level of training requirements, including training aids and O&M manuals, should be specified in the Plan. The type of training (introductory, advanced, certification), format (online/virtual, classroom, self-taught), and frequency is dependent upon each organization’s requirements, types of systems and equipment, and amount of work performed by in-house staff versus that to be outsourced. Support services may include outsourcing certain O&M requirements, independent and/or peer-based audits of O&M practices, and various consulting services.

METRICS/KEY PERFORMANCE INDICATORS (KPIS)

Ongoing performance measurement supports informed, information-based, decision making and helps to maximize the use of available resources.

From a generic perspective, an effective measurement system includes the following:

  • Clearly defined, actionable, and measurable goals
  • Key performance indicators that monitor the overall administration of O&M program, as well as individual projects / task orders, and all associated workflows, deliverables, and outcomes
  • Established baselines enabling measurement of historical and current progress
  • A basis of timely, accurate, repeatable, and verifiable information based upon standardized terms, definitions, and data architectures
  • Applicable reporting and feedback systems to support continuous improvement of processes, practices, and outcomes
  • Leading Indicators (forecast future trends inside and outside the organization) as well as lagging indicators
  • Objective and unbiased information (not subject to manipulation) that is normalized (can be benchmarked against other organizations, departments, locations)
  • Statistically reliable
  • Unobtrusive (not disruptive of work or trust)
  • Appropriate (measures the right things)
  • Quantifiable
  • Verifiable/auditable

The importance of performance measurement cannot be understated. It is a fundamental element of any successful O&M program.

O&M performance indicators include the following:

  • Annualized Total Cost of Ownership (TCO) per building per gross area = Rate per square foot
  • Annualized TCO per building/Current replacement value = Percent of Current Replacement Value (CRV)
  • Annualized TCO per building/Net assignable square feet = Cost rate per net assignable square feet per building
  • Annualized TCO per building/Non-assignable square feet = Cost rate per non-assignable square feet per building
  • Annualized TCO per building/Building Interior square feet = Cost rate per interior square foot per building
  • Churn Rate
  • Utilization Rate
  • AI (Adaptation Index) or PI (Programmatic Index) = PR (Program Requirements)/CRV (Current Replacement Value)
  • Uptime or Downtime = Defined in percent, as amount of time asset is suitable for the program(s) served
  • Facility Operating Gross Square Foot (GSF) Index (SAM Performance Indicator: APPA 2003)
  • Custodial Costs per square foot
  • Grounds Keeping Costs per square foot
  • Energy Usage is expressed as a ratio of British Thermal Units (BTUs) for each Gross Square Foot (GSF) of facility, group of facilities, site or portfolio = BTUs / Gross Area GSF
  • Utility Costs per square foot
  • Waste Removal Costs per square foot
  • Facility Operating Current Replacement Value (CRV) Index = Facility Operating CRV Index = Annual Facility Maintenance Operating Expenditures ($)/Current Replacement Value ($) (SAM Performance Indicator: APPA 2003)
  • Facility Operating GSF Index = Annual Facility Maintenance Operating Expenditures ($)/Gross Area (GSF)
  • Planned/Preventive Maintenance Costs per square foot
  • Emergency Maintenance Costs as a percentage of Annual Operations Expenditures
  • Unscheduled/Unplanned Maintenance Costs as a percentage of Annual Operations Expenditures
  • Repair costs (man hours and materials) as a percentage of Annual Operations Expenditures
  • FCI (Facility Condition Index) = DM (Deferred Maintenance) + CR (Capital Renewal)/CRV (Current Replacement Value)
  • Recapitalization Rate, Reinvestment Rate
  • Deferred Maintenance Backlog
  • Facilities Deterioration Rate
  • AI (Adaptive Index) or PI (Programmatic Index) = PR (Program Requirements)/CRV (Current Replacement Value)
  • FQI (Facility Quality Index) or Quality Index or Index = FCI (Facility Condition Index)+ AI (Adaptive Index)
  • Capital Renewal Index = Annual Capital Renewal and Renovation/Modernization Expenditure ($)/Current Replacement Value ($)EMERGING ISSUES

CHALLENGES AND OBSTACLES

While obtaining adequate O&M funding remains an elusive goal for many, the most significant challenge is change management. Facilities span the careers of individuals, and O&M management transcends generations. As a result, known future impacts may be postponed until “someone else’s watch.” Further, the impact of new strategies and processes can take years to show measurable improvements. Within a society that seeks instant gratification and financial payback periods sometimes measure in months versus years, the need for leadership and commitment of property owner management is paramount.

Additionally, the importance of facilities in the minds of senior management may not be fully appreciated, thus creating the need to better inform them of associated risks and benefits of various O&M strategies. Here, a somewhat pervasive focus upon first-costs versus life-cycle costs must be addressed and altered. Communicating the fact that an emergency repair will have ten times (10x) the cost of an appropriate maintenance operation, is an ongoing need, as well as providing cost multi-year cost impacts of alternative O&M strategies.

Historically, sharing information has been somewhat problematic for a variety of reasons, especially in areas involving costs and or techniques. This obstacle can result in higher costs and marginalized capabilities if not fully addressed. The level of collaboration and transparency required is a change in the way many organizations operate on a day to day business.

Job Order Contracting Solution

If your looking for a Job Order Contracting Solution, consider whether or not it truly delivers best value for your organization, your building users, and your awarded JOC Contractors.

Job Order Contracting Solution

In order to delivery best values to all participants and stake holder a Job Order Contracting Solution should have the following components and characteristics…

  1. Focus upon best value outcomes for “clients”.
  2. Embed core LEAN construction processes.
  3. Use a locally researched detailed line item unit price book (no use of location factors, and full transparency for labor, material, equipment, and crew/productivity information).
  4. Ease-to-use cloud technology with JOC Program Project, Estimate, Contractor, UPB, Coefficient, and Document Management.
  5. Required introductory, refresher, and advanced training provided by seasoned JOC professionals.
  6. Flexibility to support your specific needs.
  7. No administrative fees or other excessive costs.

LEAN Job Order Contacting Fundamentals

Improving AEC Outcomes… Now.

Prepare your organization for a changing future through a powerful but flexible collaborative LEAN construction delivery methodology.

Improving Construction Outcomes


Real property owners can consistently deliver quality repair, renovation, and new construction projects on-demand by adopting robust, proven LEAN processes.

For many organizations this requires significant change management that impacts people, process, place, and of course, outcomes.

The basics prerequisite is owner leadership.  Leadership’s role is to consistently reinforce focus upon delivering client value, and building collaborative, mutually beneficial working relationships all participants, vendors, and stakeholders (builders, architects, engineers, building users…).


Any real property owner, builder, architect, or engineer can advance their capabilities and measurably improve productivity and critical outcomes.   All the tools, training, and technology are readily available.

Our senior strategy team works with you key stakeholders to establish technology-enabled LEAN workflows compatible with your organization.    Just as in any LEAN process front-ending information sharing and learning and associated forward-thinking strategy maximize your resources to best optimize built environment stewardship.

Introductory and ongoing training is a mandatory component and helps to support an environment where processes and outcomes are predictable. processes that keep technology off the critical path during construction and enable technology decisions to be made on a pull schedule.

Our established LEAN construction delivery methodology assures collaboration between participants and stakeholders to ensure that projects remain on schedule and on budget with minimum risk.    Project management and visualization are virtually assured from concept, through proposal, execution, and warranty phases, and beyond.

The traditional gap between owners and vendors (builders, AEs, etc.) is effectively bridged by an environment requiring mutual trust/respect, shared risk/reward, and long term relationships.


 

OpenJOC BMPs

How Successful is YOUR JOC Program?

How successful is your JOC Program?  Unfortunately many, if not most, practitioners of Job Order Contracting, especially in the State/County/Local Sector, can’t answer this basic question.    The reason, unfortunately is the lack of understanding of basic LEAN construction delivery principles, and their potential relative to performance.

In short, how do you know how well you are doing, if you don’t have something to measure against?

Rather than discuss key performance indicators (KPIs) for LEAN Job Order Contracting, it’s likely more beneficial to simply discuss the five (5) core attributes and characteristics associated with any LEAN construction process:

  1.  Leadership:  The purpose of LEAN is to build owner capabilities to the level that they benefit and motivate both the internal teams and their external service providers (architects, engineers, contraction firms, etc.)   Clearly all service providers must act in the same manner.\
  2. Customer and Outcome Focus:  Understand the needs of the client (building user, owner, etc.) and meeting those needs… no more and no less…  is the defintion of value.
  3. Collaborative Culture & Behavior:  Collaboration and transparency is a REQUIREMENT among all participants and stakeholders.  This include financial transparent to the level of a locally researched detailed line item unit price book.   Furthermore, mutual trust and respect, and shared risk/reward,  with all working towards optimal outcomes are REQUIRED behaviors.
  4. Competencies:  Requisite levels of technical and management competencies are required of all participants and stakeholders.   It is the integration of disparate competencies that is the hallmark of LEAN construction delivery methods.  LEAN also provides a foundation for team members to continuously improve competencies and processes.
  5. Processes & Tools:   Integrated Project Delivery, IPD,  (for major new construction) and Job Order Contracting, JOC, (for repair, renovation, maintenance, sustainability, and minor new construction) are well-defined, robust, and proven LEAN construction delivery processes.   Each has there own set of tools, including documentation, workflows, training programs, information/data sets, and enabling technology.    Processes and tools are key to enabling consistent, yet lower cost deployment of LEAN construction.   They also drive ultimate value when combined with the integration of disparate competencies.

LEAN Job Order Contacting Fundamentals

Time for an Alternative LEAN Job Order Contracting Approach?

Whether you are a public sector real property owner or a contractor, your are likely looking for a JOC Solutions provider that provides true value, excellent support, and reasonable subscription fees for software and locally researched construction cost data.

In addition to all the above, you now have a provider that delivers and fully supports LEAN Job Order Contracting best management practices and services to the benefit of all participants and stakeholders.

Time for a change?

 

Guide to Implementing Efficient Facilities Repair, Renovation, and Construction Methods

DEMING2018LEAN

 

  • Articulate the benefits of LEAN facilities repair, renovation, and construction across the entire life-cycle.
  • Pilot LEAN construction delivery methods (Job Order Contracting, Integrated Project Delivery…)
  • Integrate internal and external teams (procurement, engineering, facilities management, designers, builders, building users…)
  • Focus upon BEST VALUE OUTCOMES
  • Develop quantitative key performance indicators (KPIs) to monitor progress
  • Implement common data environments (CDE), especially for repair, renovation, and construction task at the detailed line item level.  Common terms and definitions and locally researched labor, material, and equipment costs should be used, as well as a standard data architecture (CSI MasterFormat-50 Division)
  • Internal and externally communicate and market program requirements and benefits
  • Leverage enabling cloud technology, however, don’t allow technology to be the “driver”
  • Require early and ongoing collaboration of all participants and stakeholders.  Note that this will require revising organizational culture, structures, processes, etc.
  • Develop multi-party integrated collaborative contracts that leverage shared risk/reward, long-term relationships, fully defined roles/responsibilities/methods/deliverables, etc.
  • Require initial, introductory, and advanced training on an ongoing basis for all participants
  • Assure compliance with regulatory frameworks

Learn more…

 

 

 

What is LEAN Job Order Contracting?

LEAN Job Order Contracting is….

  1. A way to efficiently execute the numerous repair, renovation, and minor new construction projects encountered across the entire life-cycle of a facility or other built structure
  2. A proven collaborative construction delivery method
  3. Fully transparent from financial and technical perspectives
  4. Essential for any pubic sector property owners relative to fiduciary responsibility
  5. A long-term mutually beneficial owner/contractor relationship
  6. Compliant (EDGAR) and other requirements
  7. A toolset that enables shared information among internal and external participants and stakeholders.
  8. A value generator
  9. A means to drive continuous improvement
  10. Enabled by, though not driven by, cloud collaborative technology
  11. Adaptable, flexible
  12. A long-term committment
  13. Innovative, yet proven

    eBook1

LEAN Adaptive Construction Drives Significantly Improved Outcomes

LEAN Adaptive Construction Drives Significantly Improved Outcomes.    LEAN construction delivery methods are process-centric solutions proven to consistently deliver quality repair, renovation, and construction projects on-demand, on-time, and on-budget.

“Eighty-five percent of the reasons for failure are deficiencies in the systems and process rather than the employee. The role of management is to change the process rather than badgering individuals to do better.” – W. Edwards Deming

LEAN Integrated Project Delivery, IPD, for major new construction and LEAN Job Order Contracting, JOC, for repair, renovation, maintenance, sustainability, and minor new construction,  are proven solutions that are readily available to real property owners that have the requisite levels of leadership and competency.

Real property owners must lead the effort to motivate their internal and external teams to focus upon BEST VALUE OUTCOMES for all participants, throughout the physical infrastructure life-cycle.

Integrated procurement and construction contracts, complete with Operations Manuals/Execution Plans and a Common Data Environment (CDE) drive success and embody the following characteristics/requirements:

  • Focus upon best value outcomes
  • Required collaboration – LEAN processes
  • Common data environment, CDE – Including locally research detailed line item cost data with tasks described in “plain English” and organized in a standard data architecture
  • Mutual respect/trust
  • Shared risk/reward
  • Long-term mutually beneficial agreements
  • Oversight without excessive control
  • Required initial and ongoing training
  • Continuous improvement
  • Enabling cloud technology

LEAN Job Order Contracting for SUSTAINABLE SERVICE DELIVERY

LEAN OpenJOC(TM) Job Order Contracting for Sustainable Facilities Repair, Renovation, and Minor New Construction

LEAN OpenJOC(TM) Job Order Contracting has a number of distinct advantages for repetitive repair, renovation, minor new construction and  maintenance projects.

It provides a capacity for on-demand construction via an on-call contractor that can be  mobilized, working in a much shorter period, and far more efficiently than traditional project delivery methods.  Awarded JOC contractors also provide all requisite preconstruction services.

Th long-term nature of JOC and the somewhat repetitive nature of JOC work orders enables both the owner and the awarded JOC contractor to leverage knowledge and mitigate traditional learning curves relative means and methods.   Both the owner and the JOC contractor benefit from these efficiencies.

Benefits of an OpenJOC Job Order Contract implementation include an expedited procurement process, and consistent completion of quality projects on-demand, on-time, and on-budget per owners/contractor expectations.

The Origins of IDIQ and JOC

The origins of Indefinite delivery/indefinite quantity (IDIQ) contracting, of which Job Order Contacting is a form, began with the General Services Administration (GSA) Federal Property and Administrative Service Act of 1949.  Subsequently initial forms of JOC were implemented by the Army in Europe in the early 1980’s.   The United Stated Air Force then expanded JOC into an efficient, well-defined process and it generally regarded as by experts as one of the leading practitioners of JOC.

The Value of Lean ConstruJob Order Contracting

This history combined with the Federal Acquisition Streamlining Act (FASA) in 1994 which regulates the use of IDIQ, and availability of tools, cost data, services, and technology by more innovative JOC vendors, have made JOC  more transparent, efficient, and competitive.

The Advantages of JOC

The primary advantage of JOC has historically been is the flexibility permitted in ordered quantities and delivery scheduling.    A public agency can place orders with one or more contractors when the  actual need appears and received on-demand services from a vetted service provider.

The Additional Benefits of LEAN OpenJOC Job Order Contracting

Not all implementations of Job Order Contracting are the same.   All of the following are provided via the LEAN OpenJOC Job Order Contracting solution.

  • Integration of People, Process, Information, and Technology with LEAN best management practices (BMPs)
  • Locally researched detailed line items Unit Price Book(s) develop using the OpenJOC 5% Rule(TM)
  • Compliance reviews on all JOC proposals via an Informal Compliance Review ICR (TM) or Formal Compliance Review FCR (TM) at owner and/or cooperative designation.
  • Full financial transparency
  • Co-efficients ranging in the 1.0+ range
  • Long-term mutually beneficial owner/contractor relationships
  • Best value procurement
  • Unit Price Books developed without overhead & profit
  • Quantitative Key Performance Indicators (KPIs)
  • Focus upon building Owner/Contractor capability
  • Supporting cloud technology – Program, Project, Estimate, & Document Management with export to PDF and spreadsheet formats.
  • Supported by a team with prior experience with The R.S. Means Company, LLC, 4Clicks Solutions, LLC, USCost, LLC, VFA, Inc, and The JOC Group, LLC

In the  final analysis, this study has found that IDIQ (Job Order Contracting, etc.) can be implemented with a degree of flexibility and is a mechanism to minimize procurement effort while furnishing an on-going capability fir rapid delivery of construction and maintenance projects…

Advantages of LEAN OpenJOC Job Order Contracting

  • Owner technical and procurement staff is supplemented
  • Flexibility in quantity and delivery scheduling
  • Services are ordered when they are really needed
  • Agencies commit only for a minimum or no amount of work to be ordered
  • Allows contractor involvement in preconstruction activities
  • Lower cost of issuance of work orders
  • Useful contracting option during emergencies (hurricanes/floods/…)
  • Increase quality and timeliness of delivery
  • Reduce potential for fraud, graft, and corruption
  • Highly competitive
  • Lower bid prices
  • Larger participation of small-size and disadvantaged business

LEAN Job Order Contracting for SUSTAINABLE SERVICE DELIVERY

 

Disadvantages of IDIQ and Job Order Contracting

The only true weakness of this delivery method is most evident at state, county, and city level level and is related to  the lack of knowledge and experience of some/many agencies and  regarding IDIQ contracting LEAN construction methods.

Additional Information…

Task Order Contracts a-  IDIQ for services whose performance and delivery scheduling is determined by placing task orders with the contractor or contractors during a fixed period of time
Delivery Order Contracts – IDIQ for supplies whose performance and delivery scheduling is determined by placing delivery orders with the contractor or contractors  during a fixed period of time.
Job Order Contracts – IDIQ contracts for construction services  whose performance and delivery scheduling is determined by placing work orders (task, delivery and job orders) with the contractor or contractors during a fixed period of time.
Master Contracts/Master Agreements – Optional-use contracts whose purpose is to facilitate obtaining supplies and services from multiple contractors by placing competitive work orders.

 

 

REFERENCES

1. Controller General of the United States. Ineffective Management of GSA’s Multiple Award 9 Schedule Program – A Costly, Serious, and Longstanding Problem. General Accounting  Office (GAO), May 1979.
2. Unite States Congress. The Budget of the United States Government for the Fiscal Year 12 Ending June 30, 1952. Unite States Government Printing Office, House Document No. 17, 1Washington, D.C., 1951.
3. Sandner, C. L. and M. I. Snyder. Multiple Award Task and Delivery Order Contracting: A 15 Contracting Primer. Public Contract Law Journal, Vol. 30, 2001, p. 461.
4. United States Congress. Federal Acquisition Streamlining Act (FASA)of 1994. Public Law 17 103-355, 1994.
5. General Services Administration (GSA), Department of Defense (DOD), and National 19 Aeronautics and Space Administration (NASA). Federal Acquisition Regulation (FAR),  Volume I, Subpart 16.5, 2005.
6. Gransberg, D.D. Case Studies of Early Contractor Design Involvement to Expedite the 22 Delivery of Emergency Highway Projects. In Transportation Research Record: Journal of 23 the Transportation Research Board, National Academies, Washington, D.C. (Accepted for 24 publication in 2013).
7. Matchette, R. B., and J. S. Danis. Guide to Federal Records in the National Archives of the 26 United States. United States National Archives and Records Administration, Washington, 27 D.C., 1995.
8. Office of Federal Procurement Policy (OFPP). Best Practices for Multiple Award Task and 29 Delivery Order Contracting. Office of Management and Budget (OMB), Executive Office of 30 the President, Interim Edition, Feb. 1997.
9. Florida Department of Transportation (FDOT). Disaster Debris Removal Monitoring 32 Services Agreement, Exhibit A, Scope of Services. 2010. 33
10. Davis, D. MATOC/SATOC Overview. US Army Corps of Engineers. 2011.
11. General Services Administration (GSA), US Department of Defense (DOD), and National 35 Aeronautics and Space Administration (NASA). Federal Acquisition Regulation (FAR), 36 Volume I, Subpart 2.1, 2005.
12. NIH Information Technology Acquisition and Assessment Center (NITAAC). Chief 38 Information Officer – Solutions and Partners 3 (CIO-SP3). US Department of Health and 39 Human Services (HHS), National Institute of Health (NIH). 40 http://nitaac.nih.gov/nitaac/contracts/cio-sp3. Accessed June 24, 2013.
13. Federal Acquisition Service (FAS). Alliant Governmentwide Acquisition Contract. 42 Solicitation Number: TQ2006MCB0001. General Service Administration (GSA), 2006. 43
14. US Army Sustainment Command. ASC Selects LOGCAP IV Contractors. June 2007. US 44 Army. http://www.army.mil/article/3836. Accessed June 24, 2013.
Rueda-Benavides and Gransberg
15. Federal Business Opportunities (FBO). Solicitation Number: N6247012R5010. Apr. 2012. 1 Naval Facilities Engineering Command. https://www.fbo.gov. Accessed June 24, 2013.
16. Office of the Assistance Secretary of Defense. Contracts for November 8, 2005. Nov. 2005. 3 US Department of Defense. http://www.defense.gov/contracts. Accessed June 24, 2013. 17. Farris, D. Checking Your Indefinite Delivery/Indefinite Quantity (IDIQ) IQ. The 5 Construction Lawyer, Vol. 22, No. 4, 2002, p. 24.
18. Materials Management Division. Professional/Technical Services Contract Manual, Section 7 17. Master Contracts. Minnesota Department of Administration, St. Paul, MN, 2000. 8
19. Utah Department of Transportation. Multiple Project Contracting for On-Call 9 Professional/Engineering Services Process, Dec. 2010.
20. Florida Department of Transportation (FDOT). Design-Build Guidelines, Aug. 2012.
21. Federal Emergency Management Agency (FEMA). IS-230.c – Fundamentals of Emergency 12 Management, Lesson 1: Emergency Management Overview, Course Summary. US Department of Homeland Security (DHS). 14
22. Europeaid. Practical Guide 2013.1 (PRAG). European Commission, 2013.
23. Menches, C. L., N. Khwaja, and J. Chen. Synthesis Study on Innovative Contract Techniques 16 for Routine and Preventive Maintenance Contracts. Center for Transportation Research at 17 The University of Texas at Austin, Austin, TX, 2010.
24. Richmond, D. R. Understanding Retainers and Flat Fees. Journal of the Legal Profession, 19 Vol. 34, 2009, pp. 113-144.
25. United States Congress. Small Business Reauthorization Act 1997. Public Law 105-135, 21 1997.
26. Weber, R.P., Basic Content Analysis, Sage Publications, Beverly Hills, California, 1985.
27. Neuendorf, K.A. The Content Analysis Guidebook, Sage Publications, Thousand Oaks, 24 California, 2002, pp. 300.
28. Shane, J. and D.D. Gransberg. Coordination of the Design Contract with the Construction 26 Manager-at-Risk Preconstruction Service Contract. In Transportation Research Board: Journal of the Transportation Research Board, No. 2151, Transportation Research Board of 28 the National Academies, Washington, D.C., 2010, pp. 55-59.
29. Federal Acquisition Service (FAS). Region 6 (R6) Indefinite Delivery Indefinite Quantity 30 (IDIQ) Multiple Award Task Order Construction Contract (MATOC) with Construction  Manager as Constructor (CMc) Capabilities, for the states of Iowa, Kansas, Missouri, and 32 Nebraska. Solicitation Number: GS-06P-11-GZ-D-0009. General Service Administration  (GSA), 2009.
30. Federal Acquisition Service (FAS). Indefinite Delivery Indefinite Quantity (IDIQ), 35 Design/Build (D/B) Construction. Solicitation Number: F13PS00238. Department of the 36 Interior, 2013.
31. West, N. J. N., D. D. Gransberg, and J. C. McMinimee. Effective Tools for Projects 38 Delivered Using the Construction Manager/General Contractor. In Transportation Research 39 Board: Journal of the Transportation Research Board, No. 2268,Transportation Research 40 Board of the National Academies, Washington, D.C., 2012, pp.33-42.   32. Rueda-Benavides, J.A., and D.D. Gransberg, “Fundamentals of Indefinite Delivery/Indefinite Quantity 30 Contracting: A Primer for Public Transportation Agencies,” Compendium, 2014 Transportation Research  Board Annual Meeting, Paper 14-0631, National Academies, January 2014.

LEAN Job Order Contracting for SUSTAINABLE SERVICE DELIVERY

LEAN Job Order Contracting for SUSTAINABLE SERVICE DELIVERY

LEAN Job Order Contracting, JOC, is a proven  efficient, transparent, best value construction procurement and delivery method.  It assures consistent delivery of on-demand, on-time, on-budget, quality repair, renovation, and minor new construction projects.

LEANJOC(TM) provides an adaptable process-centered, systematic approach that supports improved physical asset life-cycle management (repair, renovation, and construction) and measurable enhanced financial outcomes.

The OpenJOC(TM) framework addresses:

  • Implementation and leverage of core LEAN processes
  • Financial Transparency
  • Clear and detailed Scope of Work Definition
  • Mutually Beneficial, Long-Term Owner/Builder Relationships
  • Key Performance Indicators (KPIs)
  • Required Regular Audits – Informal Compliance Reviews, ICRs (TM) and Formal Compliance Reviews (FCRs) (TM)

The OpenJOC framework, inclusive of products, information databases, and services,  recognizes there are many components within the facility/asset repair, renovation and construction process and provides a robust pathway method to consistently link all components of the process together, thereby limiting variation, errors, omissions, and other negative outcomes.

Best practices are fully supported within a scalable, easy-to-use environment.

Focus by all participants and standards is upon desired outcomes while also allowing for incremental, measured programs tailored to organizational needs.

 

Learn more via the eBook… An Introduction to LEAN Job Order Contracting.

LEAN Job Order Contracting for SUSTAINABLE SERVICE DELIVERY

Improving the Construction Value Chain

A better way to manage facilities repair

Improving the Construction Value Chain is possible for any real property with requisite levels of leadership, competency, and organizational support.

Despite the hype, technology, i.e. BIM, IWMS, etc., is not the solution.   Change management and the deployment of LEAN construction delivery methods and related processes have provide to consistently enable the completion of quality repair, renovation, and  new construction projects on-demand, on-time, and on-budget.

Unfortunately there is little widespread knowledge or adoption of fundamental LEAN processes throughout the AECOO sector (architecture, engineering, construction, operations, owner).

 

Core elements of LEAN construction delivery methodology include:

  1. Collaboration among all internal and external teams
  2. Financial transparency
  3. Common data environments
  4. Mutual trust/respects
  5. Consistent workflows
  6. Shared risk/reward
  7. Initial and ongoing training for all participants and stakeholders
  8. Continuous Improvement
  9. Written Operations Manual / Execution Guide
  10. Long-term relationships

All the tools, training, information, and support are readily available to any owner, A/E, or builder that wants to improve facilities renovation, repair, and construction outcomes.

Learn more?

LEAN construction

The LEAN Construction Core

eBook1

The LEAN Construction Core resides in enhanced communication, required collaboration, transparency, and a common data environment.

The OpenJOC(TM) LEAN Job Order Contracting solution includes all the tools and services to enable real property owners and their service providers to improve renovation, repair, and construction outcomes to mutual benefit.

Owners that have promoted LEAN construction have reaped significant benefits  according to authors James Womack and Daniel Jones in their book “Lean Thinking: Banish Waste and Create Wealth in Your Corporation”.

Key Characteristics of LEAN include:
• Early and ongoing involvement of participants and
stakeholders
• Best value selection
• Collaboration
• Mutual respect and trust
• Common data environment
• Financial transparency
• Shared risk/rewards
• Performance-based reward system
• Long-term relationships
• Enhanced leverage of localized knowledge
• Global oversight/leadership
• Competent leadership without excessive management and control
• Continuous improvement / ongoing training

Learn more about LEAN construction delivery tools and services…

Construction Cost Update 2018

Construction costs continue their upward trend.     The Federal Bureau of Labor Statistics reports an 8.8 percent  year over year increase in materials, with largest increases coming from diesel fuel, aluminum mill shapes and lumber and plywood.

Trade disputes and the concern about trade wars is the consensus as to cause.

The rate of cost increase is the highest since 2011.

  • Aluminum mill shapes, 17.3 percent.
  • Lumber and plywood, 13.9 percent.
  • Copper and brass, 13.8 percent.
  • Steel mill products, 10.5 percent.
  • Diesel fuel, 44.5 percent.
  • Asphalt felts and coatings, 8.9 percent.
  • Ready-mixed concrete, 6.5 percent.
  • Paving mixtures and blocks, 5.2 percent.

The impact is upon commercial contracts is equal to that upon owners.   Both are struggling to deal with accelerated cost pressures.

It is becoming more important than ever to improve productivity and collaboration via LEAN construction delivery.

LEAN construction

Improve Facilities Repair & Renovation Success Today!

Any organization can  Improve Facilities Repair & Renovation Success Today.    All the tools, training, information, processes, and support are available to ANY facilities management team that wants to consistently delivery renovation, repair, and minor new construction project on-time, on-budget, and to everyone’s satisfaction.

No LEAN, No Actionable Data = Poor Productivity, Low Value-add, Over-budget, Late, and Low Satisfaction for ALL

Request our eBook to learn more….

eBook1

A common data environment (CDE) and LEAN construction delivery methodology delivers best value outcomes.   Request the eBook …

The significant impact of BIM (Building Information Modeling) is not  based upon technology and 3D visualization, but rather the enhanced focus placed upon the way we work at every stage of the building process: planning, design, construction and management,  While BIM itself has done little to change traditional, ,unproductive ways, it has drawn attention to the need for higher levels of collaboration and a Common Data Environment.

A CDE allows participants to distribute common understood information…versus disparate, ad hoc, unorganized data…and create value for the whole value chain of users and stakeholders involved in the process.

LEAN Construction Delivery Methods, in concert with a CDE, can be considered the process, economic, and organizational foundation on which to build a new way of doing business: Those who are able to manage and exploit this will find themselves at the heart of the production of value in support of the organizations mission, the others will be left behind.

To generate value, current actionable information originating from the planning and project phases must be channeled as quickly as possible, without interruption further along the process, where it can be continuously and consistently aggregated, distributed and updated.

 

LEAN Facilities Management Roadmap

A LEAN Facilities Management Roadmap can help any committed organization maximize value from its built environment.

What is a LEAN Facilities Management Roadmap?

A LEAN Facilities Management Roadmap (LeanFMR) is document that outlines the plan to achieve short and long-term goals for facilities leveraging total cost-of-ownership life-cycle asset management and collaborative, relationship-based LEAN, construction delivery methods that leverage system-thinking.

LEAN Facilities Management Roadmap

 

A LeanFMR provides essential information that helps organizations make better decisions about facilities reinvestment.

Strategic Asset Management Key Principles

Step-by-step plan

A LeanFMR shows the currently status of facilities and other built structures in terms of physical and functional condition, as well associated costs required to maintain these assets at a desired level.   It shows capital requirements as well as which improvements are planned over time, including end of life.

Multiple knowledge domains, technologies, information sources, as well as internal and external stakeholders are integrated to assure that physical infrastructure requirements are planned and executed in an organized, cost-efficient, and timely manner.

Ultimately, the goal of a LeanFMR is to align key owners participants and stakeholders and service providers,  by creating an action plan to implement new relationship-based solutions within a common data environment (CDE).    A CDE is a critical component as it  helps teams to better understand what technical requirements are needed to achieve the final goal, as well as detailed costs, and provides a clear path for program success.  An example of a CDE that provides financial transparency is a locally researched detailed line item unit price book (UPB).  A properly designed UPB, such as the 4BT OpenJOC(TM) Unit Price Book,  is locally researched, uses common terms and definitions in plain English that all parties can easily understand, and provided renovation, repair, and new construction tasks with supporting labor, material, and equipment costs as well as productivity information.  While so called “national average price books” and “square foot” or “assemble level” information have value, granular local market line time data is actionable and provide for the best mutual understanding of scope of work, thereby minimizing errors, omissions, and miscommunications.

LEAN FACILITIES MANAGEMENT

All facilities real property owners must be able to understand detailed line items construction cost estimating, or have a properly vetted owner’s representative to provide this capability.

Core Components of a LEAN Facilities Management Roadmap are:

Goals

Short and long-term performance requirements for the built environment in terms of cost, physical condition, and functional condition are quantitatively specified, including associated timelines and budgets.  Goals are outcome oriented and focus upon core aspects of the organizational mission.

Implementation Plans

Implementation plans are phased to enable requisite “change management” to occur at a pace at which the organization is capable.   Not all organization are ready for the day-to-day behaviors and activities required within a LEAN process-based environment.  Establishing specific milestones and/or  key achievements and tracking them helps participants understand the progress and direction of the long-term goal of the entire program.  Milestones are typically tagged on specific dates and treated as performance targets to ensure that the organization is on track.

Knowledge & Management Resources, Education & Training

Another core aspect of the implementation plan is initial and ongoing training and communication with all internal and external participants and stakeholders.

The internal and external teams needed to implement and maintain the LeanFMR is not a trivial consideration.  New processes and capabilities are needed.    The level of information sharing, contribution is significantly higher within a LEAN environment. Dependencies between multiple groups are much higher.

It is not unusual that reorganization must take place in order to get the right employee and/or right service partner in the right place. Initial development and implementation can carry a higher initial cost that has to be budgeted, however, reap significant measurable savings.

Fortunately, multi-level (introductory, advanced, refresher) and multi-format (on-site, virtual, self-paced) training in relationship and information based process as well as requisite tools, information databases, and support are readily available.

Who is involved in drafting the LEAN / Relationship-based Facilities Management Roadmap and Execution?

Virtually all owner areas (leadership, planning, procurement, and project delivery) are involved in facilities int the process, as well as service providers.

  • Senior management
  • Planners
  • Procurement
  • Facilities management
  • Service providers (Builders, AEs …)
  • Operations
  • Building Users
  • Legal

The creation and execution of a LeanFMR is not static,

A continuous effort is needed to identify key initiatives that support the needs of the organization, engage people, and effect planning, execution and continuous improvement and ensure stakeholders remain focused on the most important organizational objectives.

Focus must be upon the achievement of best value outcomes in support of the organizational mission.   The team must also account for possible risk factors, and possible obstacles and prepare accordingly.

Key Elements and Requirements

  1. Focus upon BEST VALUE outcomes
  2. Common Data Environment (CDE)
  3. Financial Transparency
  4. Mandatory Collaboration (Both internally and with external service providers)
  5. Required Initial and Ongoing Training for all participants
  6. LEAN Construction Delivery Methods
  7. Shared Risk/Rewards
  8. Mutual Respect/Trust
  9. Ongoing improvement
  10. Enabling Technology

Learn more…   Request our eBook?

Construction Cost Estimate

Estimate

To estimate, per the Merriam-Webster dictionary, is to produce a statement of the approximate cost.    Construction cost estimators know there is a more to it than this definition indicates.   First, there are several levels of estimate ranging from conceptual to detailed line item, including quantities, equipment, material, and labor costs.   Second, there is the estimating process and associated source materials.  Third, there are location, weather, and economic factors… not to mention just plain unavoidable circumstances or variables… etc. etc. etc.

Many see little value in budgetary estimates exclusive of longer term financial planning purposes.   Many also don’t see much point to “system” or “assembly” level estimates.  The reason being that it’s rare that two assemblies or systems are exactly alike in differing locations/applications…..

A locally researched detailed line item database, organized by CSI MasterFormat – 50 Division is a valuable tool for any estimator and real property facilities manager.  Properly developed and maintained, it provides a shared information source of common terms, definitions, and detailed tasks to clearly define scope and costs.

Estimate Considerations

  • Scope of Work
  • Site, Weather, Time, Safety, Security, Factors
  • Means & Methods
  • Quantities
  • Labor burdens-SSA, Unemployment & Workers comp (properly calculated in locally researched databases such as the 4BT OpenJOC(TM) Unit Price Book)
  • Contractor Overhead & Profit

 

 

 

 

 

 

TASBO – Efficient School Repair, Renovation, and Minor New Construction Delivery Approach

Efficient School Repair, Renovation, and Minor New Construction Delivery is now within the grasp of every school with the availability of  ASC/4BT OpenJOC(TM) LEAN Job Order Contracting.

TASBO

This better way to improving the delivery of mission critical school renovation, repair, and minor new construction services, assures complete financial transparency and the consistent completion of projects on-time, on-budget, and to everyone’s satisfaction… without excessive administrative fees.

Check the fees you are paying now for cooperative memberships, and those being charged to JOC contractors for your current supplier.   You may well be surprised.  Don’t forget, if your JOC contractor is paying excessive fees…it’s really coming out of your pocket!

Furthermore, how can you assure that your limited financial resource are being spent in compliance with your expectations if EVERY JOC PROJECT is not being audited?

You can do better…. learn more…

Streamline construction delivery

The ability to streamline construction delivery, reduce variation, and improve overall outcomes for all participants and stakeholders has existed for decades.

The key to streamlining and improving renovation, repair, and construction delivery is to boost early and ongoing communication and cooperation across procurement, facilities management, building users, AEs, and builders.

The consistent delivery of efficient and successful construction projects is virtually impossible without owner leadership and competency.   Real property owners must take their roles as stewards of the built environment in earnest.   It’s really that simple.

All the tools, processes, information,  and support are readily available to assure on-demand repair, renovation and construction projects are consistently completed on-time, on-budget, and satisfactorily ….if owners would only do their jobs.

The type of construction delivery methods and associated contract determines ultimate success or failure more than any other element.   It’s the construction delivery method that sets the overall tone, determines roles and relationships, distributes risk/reward, requires collaboration or not, defines a common data environment, an so much more.

Integrated Project Delivery, IPD, for major new construction and Job Order Contracting, JOC, for repair, renovation, and minor new construction, have proven superior to both traditional design-bid-built and even newer variants such as design-build, CM@R, etc.

Learn more about the benefits of LEAN collaborative construction delivery…. www.4bt.us

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Rigorous, fact-based, & transparent construction project definition, procurement, & management

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Rigorous, fact-based, & transparent construction project definition, procurement, & management is key to improved outcomes.

A detailed, financially transparent process renovation, repair, and new construction can be accomplished using a locally researched unit price book (UPB).  order.    When combined with a proven LEAN construction delivery method, such as Job Order Contracting, adequate owner support, and service-oriented contractors, projects can consistently be delivered on-demand, on-budget, on-time, and to everyone’s satisfaction.

The OpenJOC(TM) suite of tools and services support a LEAN outcome focused approach.  It enables real property owners to improve decision making and better service organizational goals.

Would you like to learn more?

www.4bt.us

A better way to manage facilities repair, renovation, and minor new construction

There’s a better way to manage facilities repair, renovation, and minor new construction.

Why not use it?

We know that your needs are constantly changing, that’s why you need a LEAN construction delivery framework that embeds new and improved ways to serve them… openly, in full compliance, and without excessive costs or fees.

LEARN MORE ABOUT OUR INNOVATIVE APPROACH – Open Job Order Contracting (TM).

A better way to manage facilities repair

LEAN JOB ORDER CONTRACTING comes to NEW MEXICO

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LEAN Job Order Contracting

Comes to New Mexico!

Allied States Cooperative / 4BT OpenJOCTM  Framework

Isn’t it time you stopped the waste, the worrying, and the hassles commonly associated with facilities repair, renovation, and minor new construction​​?

Procuring and executing on-demand, on-budget, on-time, quality construction services has traditionally been difficult.

Design-bid-build just doesn’t work consistently, nor have  JOC Cooperatives with excessive fees, poor management and oversight, or those that use “national average cost data”.

The availability of LEAN  OpenJOC Job Order Contacting in New Mexico, solves construction productivity problems, ends costly delays, and delivers the quality you need at a reasonable cost.

It is now possible for any savvy public sector real property owner in New Mexico to get on-demand, on-time, on-budget, quality construction services at a fair price!

The primary reason for waste in construction is lack of visibility into project scope and lack of robust processes that mitigate variation.

Traditional construction delivery, and even Job Order Contracting deployed inappropriately does little to resolve the issue.

LEAN Job Order Contracting deployed via the OpenJOC(TM) Framework provides all the processes, tools, and information to assure best value outcomes for you and your construction contractors!

Best Value Focus
Construction services decision-making should be accomplished collaboratively among technical teams, procurement, building users and builders.

The Allied States Cooperative / 4BT OpenJOC  Framework puts all the tools and processes in place to avoid issues and excessive costs common to other JOC Cooperatives and traditional procurement of construction services.

Think Locally

Locally researched detailed line item cost data is the foundation of any successful JOC Program.

Local construction service providers are most familiar with the supply, economic, and technical challenges of your location.   Also consider smaller firms that have less capital intensive overhead that comes a your expense.

Your Needs Matter
Sure, construction services aren’t “cookie cutter” and can be complicated.  That’s exactly why you want skilled professionals working with you collaboratively in a fully financially transparent manner…. and the support of a consistent FRAMEWORK such as that provided with the OpenJOC LEAN JOC Program.

Price Guarantee 

Annual pricing for procured products will not increase more than 3% annually and/or consumer price index (CPI), whichever is lower.   We are also a CSI Masterformat licensee.

If you are interested in making your facilities repair, renovation, and minor new construction less painful and significantly more productive than traditional methods… contact us to learn more…info@4bt.us

Request LEANconnect(TM) newsletter… Click here.

Don’t know about JOC?  Click to learn more.

Additional Information

JOC Strategic Needs Analysis

JOC requires a focus upon change management for many/most organizations.

  • Does your organization have a backlog of millions of dollars in renovation, repair, and minor new construction projects?
  • Does your staff have requisite levels of leadership and facilities management competencies?
  • Can your team work collaboratively with builders and establish long-term, mutually beneficial relationships?

JOC Review/Audit

Regular job order contracting audits are critical for any successful JOC Program.  In fact, EVERY JOC Project should be reviewed in detailed by the owner.  Continuous improvement is central to JOC and LEAN practices and improvement is impossible without actionable information.   As the saying goes… “you can’t manage what you don’t measure.”

Processes, procedures, and outcomes should be monitored and independently audits for compliance and value to the organization.   For example, best in class JOC Cooperatives, such as the Allied States Cooperatives, require a third party review of every contractors JOC proposal.

Initial and Ongoing Training

Introductory, Advanced, and Refresher Training should be required for all JOC Program participants.  This training can be provided hands-on and virtually.

Use Locally Researched Line Item Unit Price Cost Data

Job Order Contracting cost data, the unit price book, is a required element of any JOC Program.   Locally researched cost data provides multiple advantages over the use of “national average price books” and/or localization factors or “cost indexes”.   Furthermore, a JOC UPB should not be “static” (be the same price book throughout the duration of a multi-year JOC) and updated solely via a generic economic factor.   Labor costs should be updated quarterly, and line items added as appropriate.  Lastly, UPBs should include a excessive number of line items.  30,000-60,000 line items are sufficient for the majority of JOC Programs.   Having hundreds of thousands of line items can contribute to confusion, excessive costs, and project delays.

JOC Software

Technology is an enabler.  JOC software should be cloud-based and have core LEAN JOC processed embedded in order to support consistently JOC Program delivery.   Using generic software, ERP software, IWMS software, or spreadsheet, will provide “generic results.”

Remember, All JOC Programs are not the same!

Material Price Changes: What you need to know!

Copper has gone down slightly.
All steel related products such as structural steel, Rebar and steel pipe have increased by as much as 10%. One consequence is that more Owners may choose to use plastic and copper over steel. CPVC is a higher grade of plastic that is approved for fire sprinkler systems instead of steel. Up to 4 inches, K or L copper can replace steel for mechanical systems.

Recent Owner and Contract JOC Training: Amazingly positive reaction to Open LEAN Job Order Contracting approach!

Nearly one hundred owners and contractors have recently attended training for LEAN Job Order Contracting, with additional classes being scheduled in Texas, New Mexico, Florida, and California.

New to JOC?  Want to improve your current JOC Program?   

Just ask us.   Our team has had decades of experience in all aspects of Job Order Contracting, LEAN processes, construction cost data, and life-cycle facilities management.

Want to read more articles like this ?

   Visit our blog   

Detailed Line Item Construction Cost Estimating Matters!

Detailed Line Item Construction Cost Estimating Matters a great deal to estimating, risk management, facilities management, and service providers (A/E’s, builders…).

While many professionals talk about contingencies, a focus upon assuring the use of experienced line item cost estimators (likely with a decade of more of experience… inclusive  knowledge of field work processes) and the use of standardized terms, definitions, and data architectures (CSI MasterFomat – 50 Division) at a detailed line item level, inclusive of quantities, and associated labor, equipment, and material info…. would do wonders in improving …

  1. Improved definition and communication of a detailed scope of work,
  2. Full financial visibility and transparency,
  3. Mutually beneficial relationships between owners and service providers, and
  4. Overall program/project outcomes.

Others also talk about the value of historical cost data in projecting future outcomes.  While an owner’s historical projects costs have some merit, they do not reflect current market conditions, nor necessarily what costs saving may have been achieved via alternative methods.   In general, one even might go so far as to say that good information from past projects complete may yield very little useful information for the following reasons:

  • Lack of well trained, competent, committed, and collaborative professionals (internal and external)
  • No standardized method for collecting, describing, and organizing cost data – Common terms, definitions, and data architectures (CSI MasterFormat – 50 Division) is powerful data architecture)
  • Absence of LEAN construction delivery methodology

Building a trustworthy detailed line item estimate requires a knowledge of the following…

  • Local labor costs and crew compositions
  • Local material costs
  • Local equipment rental rates
  • Multi-disciplinary information about all requisite trades and associated procedures

Detailed line item construction cost estimating yield the most accurate construction estimate possible (+/- 5.0%).   It requires professional domain experts experts, LEAN systems and processes in place, and organization-wide commitment to properly collect, analyse, and use cost data.

Locally researched line item construction cost data, when combined with the experience of knowledgeable estimators can deliver consistently superior results, if leverage within a LEAN construction delivery environment such as Integrated Project Delivery, IPD, for large construction projects, and Job Order Contracting, JOC, for repair, renovation, and minor new construction projects.

Learn more?

Avoid Construction Disputes

Efficient Facilities Repair, Renovation, and Minor New Construction NOW AVAILABLE in New Mexico – OpenJOC(TM) LEAN Construction has arrived!

Efficient Facilities Repair, Renovation, and Minor New Construction NOW AVAILABLE in New Mexico – OpenJOC(TM) LEAN Construction has arrived!

On-demand, on-budget, on-time, qualify construction services are now available throughout the State of New Mexico from the following quality service providers via the Allied States Cooperative and 4BT OpenJOC LEAN construction solution.

Based on the locally researched 4BT OpenJOC Unit Price Book and detailed line item estimating as the cost basis, and the administration and support of the government agency owned and administered Allied Stated Cooperative, public sector facilities owners now have a responsive, compliant, and easy-to-use contract structure for their numerous and ongoing construction services needs.

The Allied States Cooperative Job Order Contracting Services framework is used by universities, school districts and municipalities statewide as well as other non-profit, not-for-profit institutions.

Leverage long-term, mutually beneficial relationships with proven contractors and benefit from greater financial visibility and revenue stabilization.

AWARDED JOC CONTRACTORS for Construction Services in New Mexico

JordanFoster-JOC

Nasco-JOC

Pride-JOC

Veliz-Overview

Reduct Costs and Risks

SimplifyJOCASC

Job Order Contacting & Line Item Estimating Basics Workshop

Another series of well-received training classes was just complete in mid-July 2018.  A Job Order Contacting & Line Item Estimating Basics Workshop, and our series of contractor training classes for the Allied States Cooperative Job Order Contracting Services Contract for the State of New Mexico drew the following comments…

Very well explained and friendly environment!

Great program!

 4BT is more than willing to help small businesses!

The education of our internal team and focus upon relationships with customers was invaluable!

 

4BT LEAN Job Order Contracting (JOC) is a robust construction delivery method that consistently delivers 90%+ of repair, renovation, and minor new construction projects on-demand, on-time, on-budget, and to the satisfaction of all participants and stakeholders.   

It is based on the locally researched 4BT OpenJOC(TM) Unit Price Book and detailed line item estimating as the cost basis.   

Job Order Contracting is used by universities, school districts and municipalities statewide as well as other non-profit, not-for-profit institutions.  

A JOC Program, when properly developed, executed, and supported is an on-demand, responsive, compliant, and easy-to-use contract structure for owners.  Full financial transparency and structured processes greatly improve all repair, renovation, maintenance, sustainability, and minor new construction outcomes.  Change orders and legal disputes are virtually eliminated.

For contractors, JOC Programs provide long-term, mutually beneficial relationships with owners and greater financial visibility and revenue stabilization.

Avoid Construction Disputes

2018 Mid-Year Commercial Construction Market

2018 Mid-Year Commercial Construction Market Update

Down 5.5% – Non-residential starts YTD

Down 6.3% – Non-residential starts June 2018 versus June 2017

Down 27% – Commercial construction starts YTD

Down 12% – Institutional starts YTD

Down 29% – Higher education starts YTD

Down 34% – Private office building starts YTD

Up 22% – Hotel/motel starts YTD

via Four BT, LLC – Lean construction delivery and open, locally researched construction cost data solutions.

2018 Mid-Year Commercial Construction Market

 

 

 

How to Avoid Construction Disputes

Learning how to avoid construction disputes is important to real property owners, AEs, builders, and building users.

While the construction sector is notorious for its low productivity and waste,  any facilities management team can consistently deliver project on-demand, on-time, on-budget, and to the satisfaction of all participants and stakeholders.   This can be done through the deployment of LEAN collaborative construction delivery methodology.

The best defense to avoiding construction issues and disputes is to conduct significant upfront planning before the project starts and assure early and ongoing collaboration within a common data environment, including full financial transparency.

With the appropriate display of leadership and competency, any real property  owner and significantly improve the speed and quality of renovation, repair, maintenance, and new construction projects.

The following  will help building owners and service providers jointly minimize risks and avoid project disputes.

(1) LEAN Construction Delivery Contract and Operations Manual/Execution Guide It is imperative to acknowledge that the construction delivery methods dictates ultimate program and project success or failure more so than any other single element. It is the construction delivery method that sets the tone, defines roles and responsibilities, defines requisite processes and details final deliverables.   Lean construction delivery methods assure that all parties (owners, builders, AEs, building users, …) know and understand their contract / subcontract and the associate project before it is executed and before a project starts.  A written Operations Manual/Execution Guide is part of the contract and details process stages, approvals, required information formats, reporting, etc.  In short, LEAN construction delivery is focused upon best value for the owner and all participants while putting in place capabilities for internal and external teams to be responsible for and play a role in increasing value on an ongoing basis.  Each term member is both accountable and a key resource, bringing their unique knowledge, skill sets, and capabilities into the support of value optimization.

(2) Common Data Environment:  A locally researched detailed unit price book, UPB, using common terms and definition, and organized using CSI MasterFormat 50 Division, is key to assuring mutual understanding of work scope and financial visibility/transparency.

(3) Document project needs/stages/issues/information in real-time:  Nothing is more important to avoiding construction disputes than preparing solid, detailed, and contemporaneous documentation during the project.   This is greatly aided by a cloud-based program/project/estimate/document management systems.   All parties have appropriate access to the  information they need.  Furthermore, a full document management system assures that everyone is working on the same and current version of information.   Documents are checked-in and checked-out, just like a library, and only persons with appropriate permissions can edit them.

(4) Shared Risk/Reward, Mutual Trust/Respect, Long-term Relationships:  When a problem comes up on a project, deal with it head-on, and do so in an open, shared, manner without assigning blame.   Seek solutions from appropriate team members. Document and learn from the mistakes and adjust procedures appropriately.   This is what collaborative and continuous improvement… and LEAN… is all about.

(5) Require Initial and Ongoing Training.  Require Collaboration.  Use all the tools and services at your disposal.   All participants must be required to attend initial and ongoing training.  Collaboration mus be required of all participants.   And lastly, all the tools, training, and services to assure consistent success are readily at your disposal.  Use them!

How to Avoid Construction Disputes

Time for Open Job Order Contracting

 

 

Attention Construction Contractors – Collaboration is Key to Customer Experience

Collaboration is Key to Customer Experience and to your bottom line.

Early and ongoing collaboration with building owners, facilities management, procurement, and associated technical teams is the single most important element to driving improved outcomes and long-term, mutually beneficial outcomes.

Attaining and maintaining internal and external collaborative relationships requires leadership & organization-wide commitment.    This commitment specifically involves the following elements with respect to repair, renovation, and new construction builders…

  1. Best Value – An understanding that best value is the over-riding driver with respect to meeting client needs.  Provide exactly what the client needs, when they need it, and at a reasonable cost.
  2. Financial and Project Composition Transparency –  The use of a locally researched line item detailed unit price book, UPB, organized using CSI Masterformat (50 Division).  This provides enhanced understanding of the scope of work, and mitigates both errors and omissions.   Change orders and legal disputes can virtually be eliminated.
  3. LEAN Construction Delivery Methodology – Lean construction delivery methods such as Integrated Project Delivery, IPD, for major new construction, and Job Order Contracting, JOC, for repair,renovation, sustainability, maintenance, and minor new construction have been proven for decades and are far superior to traditional design-bid-build and also outperform design-bid, construction manage at risk, etc.

Improving collaboration, customer experience, and your bottom line is as easy as 1, 2, 3.

Time for you to get started?   All the tools, training, and information is at your fingertips.

Reduct Costs and Risks

OpenJOCApproach

Demming4BTlogosquaretagline

Best Value LEAN Construction Delivery

OpenJOCApproach

Collaborative process and dialogue among Owner, A/E’s, and Contractors drive significantly improved outcomes.   This can consistently be achieve through the us of LEAN Construction Deliver Methods, such as OpenJOC(TM) Job Order Contracting.

The value of the OpenJOC framework is its ability to provide a systematic approach of eliminating waste so every step adds value for the client and mutual benefit to all participants.   It integrates all parties who contribute to the overall customer value into a seamless integrated process.

The first step in the process is to define value from the customer perspective.   This is then enable via a consistent process flow that embeds core LEAN principles.  The end result is to produce only what the customer has ordered.

Financial transparency is also required.  This is provided via a locally researched detailed line item unit price book.

Front-loading knowledge sharing is also fundamental, and is accomplished by the owner preparing an initial scope of work and then scheduling a joint site visit the the contractor.

LEAN is customer-focused and outcome-focused.  It is also knowledge-driven as is draws upon and integrated the knowledge and innovation from all participants and stakeholders  – facilities management, procurement, building users, builders, A/E’s …

It is also a dynamic and continuous activity.  Participants pursues\ on-going systemic as well as incremental improvement.

Flexibility and responsiveness are standard components as are mutual trust and respect and share risk/reward.  Trust-based relationship and mutual commitments and
obligations, internally and externally with suppliers are the norm versus the exception.

Here are just a few elements of  OpenJOC LEAN Job Order Contracting that drive consistently improved outcomes:

1. Defined roles, responsibilities, processes, boundaries, reports, information, processes…
2. Common Date Environment, including a locally researched unit price book
3. Ongoing audits and use of key performance indicators (KPIs)
4. Required collaboration
5. Required initial and ongoing training
6. Continuous improvement
7. Best value procurement
8. Global oversight with local decision-making
9. Long-term relationships built upon mutual respect and shared risk/reward…

Learn more.

Four BT, LLC – Enhancing Job Order Contracting and LEAN construction delivery knowledge and performance through innovative ideas and sustainable management practices.

Flying Pigs and Solving the Construction Productivity Problem

pigs.jpeg

Procuring and executing on-demand, on-budget, on-time, quality construction services has traditionally been as likely as seeing pig fly.

Solving the construction productivity problem however is now attainable for any savvy real property owner.

Isn’t it time you stop the waste, the worrying, and the hassles of facilities repair, renovation, and minor new construction.

The primary reason for waste in construction is lack of visibility into project scope and lack of robust processes that mitigate variation.
LEAN construction delivery can consistently make you, your stakeholders, and your builders happy, while also maximizing use of your resources.
Job Order Contracting (JOC), specifically LEAN Job Order Contracting deployed via the OpenJOC(TM) Framework provides all the processes, tools, and information to assure that 90%+ of project meet requirements versus the 25% industry average.

Best Value Focus

Construction services decision-making should be accomplished collaboratively among technical teams, procurement, and building users…. and the suppliers!    Structures can easily be put in place to avoid wasteful redundant procurement for common, recurring repair, renovation, and minor new construction projects.

Based upon the size of your facilities repair/renovation/maintenance budget, you may elect to set up your own JOC Program, or procure JOC Construction Services through a vetted Cooperative administered by a public agency.

Think local

Local construction service providers a most familiar with the supply, economic, and technical challenges of your location.   Also consider smaller firms that have less capital intensive overhead that comes a your expense.

Details Matter

Sure, construction services aren’t “cookie cutter” and can be complicated.  That’s exactly why you want skilled professionals working with you collaboratively in a fully financially transparent manner.

Procuring construction services via low-bid or lump sum simply doesn’t work.  The granularity of information, work scope, and pricing provided exclusively by a locally researched unit price book (UPB) is a key tool for improving overall outcomes.

If you are interested in making your facilities repair, renovation, and minor new construction less painful and significantly more productive than traditional methods… contact us to learn more…

PS… Everyone knows pigs don’t fly… but they do swim!

The Value of Lean Construction

The value of LEAN construction is it’s ability to consistently deliver 90%+ of repair, renovation, and new construction projects on-time, on-budget, and to the satisfaction of all participants and stakeholders.

There are two robust and proven LEAN Construction methods:

  1.  Integrated Project Delivery, IPD, for major new construction, and
  2. Job Order Contracting, JOC, for repair, renovation, and minor new construction.

We will focus upon Job Order Contracting as we all are aware that the bulk the costs associated with buildings and other physical structures are associate with repair, renovation, and ongoing operations.

An example of LEAN Job Order Contracting, is the OpenJOC(TM) Platform, a suite of defined process, support services, supporting technology, and a common data environment (CDE). Application of core LEAN processes to construction project delivery in this manner requires owners and contractors to collaboratively make better project management and project delivery decisions.   Procedural best practices, leverage of diverse knowledge resource, internal and multi-party agreements are core components and are fully defined within written set of processes via a JOC Operations Manual / JOC Execution Guide.

The focus of LEAN construction project delivery methodologies is the consistent deployment of strategies to maximize project value for all participants and benefactors, while at the same time mitigating variation and risk. The process is not static and requires initial and ongoing training, regular audits, and continuous improvement.

Furthermore, the required levels of collaboration among all participants and stakeholders (real property owners, facilities management, technical and procurement teams, building users, builders, designers, etc.) are far greater than traditional construction delivery methods.  Change management is part of the equation, and can be problematic for some organizations.

The Value of Lean Construction

The OpenJOC Job Order Contracting Construction Delivery Methodology can be readily adapted to meet an organization’s need, vision, mission, and desired outcomes, however, certain basic tenants… collaboration, financial transparency, shared/risk reward, mutual trust/respect, and a common data environment, etc. … must be maintained.

Similarly, established workflows must be maintained and supported.  Descriptions of workflows, processes, procedures, standards, templates, forms, locally researched unit price books, forms and checklists used over the project life cycle… all play a role in contributing to best value outcomes.

While most organizations today whether owners, builders, facilities management, etc. … do not use formalized for LEAN project delivery methodology and run their projects as they always have…. new economic and environmental demands will likely cause this to change rapidly.

It is also important to remember that all JOC Programs are not the same. Organizations should assure that dynamic LEAN methodologies and processes are leveraged in order to assure that desired benefits are attained from their JOC Programs. JOC should never be used solely as a procurement tools or to “fast track projects”. While both procurement and total project delivery times can be expedited with JOC, the primary motivation and benefit of JOC is the ability to deliver BEST VALUE.

The Value of Lean Construction

The Value of a the OpenJOC LEAN Job Order Contracting Construction Delivery Methodology

“Eight-five percent of the reasons for failure are deficiencies in the systems and process rather than the employee. The role of management is to change the process rather than badgering individuals to do better.”  – W. Edwards Deming

The OpenJOC approach provides the framework, processes, guidelines and techniques to manage the people, information, and technology to achieve best value project outcomes. It significantly increases the odds of project success and thus provides value to organizations capable of proper implementation.

Furthermore the OpenJOC suite of tools and services don’t carry the excessive administrative fees or other negative impacts associated with alternative offerings….yet deliver multiple benefits, some of which are listed as follows;

  • Renovation, repair, and minor new construction projects are completed efficiently.
  • Significantly higher levels of consistency and dependability resulting from the use of common procedures, locally research unit price cost data, workflows and forms/reports.
  • Technology and processes that are easy to use and simple to deploy, resulting in shorter learning curves and reduced effort in scoping, procuring, and executing projects.
  • Owners and contractors mutually benefit by working directly together without any inherent bias potentially imposed by a third party.  Mutual understanding of project scope is virtually assured.
  • Processes are in place to limit problems, however, processes are in place for resolving problems quickly.
  • Teams are proactive and collaborative, reducing the time project managers spend dealing with issues
  • Managing expectations with stakeholders is also a core component.
  • The development of formal and informal communications drives enhanced understanding of the project, its objectives, and the requisite approaches among all participants.
  • Improved use of limited financial resource
  • Compliance monitoring and assurance.
  • Better project definition, more detailed construction cost estimating, more formal budgeting and alignment of actual project costs with budgets

In summary, public sector real property owners that have good LEAN processes, and follow them, obtain better results in a consistent, repeatable and predictable manner.

LEAN Job Order Contracting Guide

Time to Improve Your Job Order Contract?

Not all JOC Programs are the same.   It may be time to improve your job order contract.

The use of LEAN best management practice can help you get the most out of your Job Order Contract.

While we understand the not everyone is ready for LEAN, Open, Transparent, and Collaborative Job Order Contracting that is mutually beneficial to both Owners and Contractors,… and doesn’t require excessive administrative fees…   we happen to believe that its the only way to go!

Improve Your Job Order Contract

If you agree and want to improve your job order contract, or would simply link to learn more, please contact us.

Job Order Contract Best Management Practices for Real Property Owners

JOC Strategic Needs Analysis

JOC requires a focus upon change management for many/most organizations.

  1. Does your organization have a backlog of millions of dollars in renovation, repair, and minor new construction projects?
  2. Does your staff have requisite levels of leadership and facilities management competencies?
  3. Can your team work collaboratively with builders and establish long-term, mutually beneficial relationships?

JOC Review/Audit

Regular job order contracting audits are critical for any successful JOC Program.  Continuous improvement is central to LEAN JOC practices.   As the saying goes… “you can’t manage what you don’t measure.”   Processes, procedures, and outcomes should be monitored and independently audited for compliance and value to the organization.   Tier One JOC Cooperatives, such as the Allied States Cooperatives, for example, require a third party review of every contractor’s JOC proposal.

Reduct Costs and Risks

Initial and Ongoing Training

Introductory, Advanced, and Refresher Training should be required for all JOC Program participants.  This training can be provided hands-on and virtually.

LEAN Job Order Contracting Guide

Locally Research Line Item Unit Price Cost Data

Job Order Contracting cost data, the unit price book, is a required element of any JOC Program.   Locally researched cost data provides multiple advantages over the use of “national average price books” and/or localization factors or “cost indexes”.   Furthermore, a JOC UPB should not be “static” (be the same price book throughout the duration of a multi-year JOC) and updated solely via a generic economic factor.   Labor costs should be updated quarterly, and line items added as appropriate.  Lastly, UPBs should not include an excessive number of line items.  30,000-60,000 line items are sufficient for the majority of JOC Programs.   Having hundreds of thousands of line items can continue to confusion, excessive costs, and project delays.

JOC Software

Technology is an enabler.  JOC software should be cloud-based and have core LEAN JOC processed embedded in order to support consistently JOC Program delivery.   Using generic software, ERP software, IWMS software, or spreadsheet, will provide “generic results.”

Remember, All JOC Programs are not the same!

Screenshot_3

Rethink, Reshape, Rewrite your Job Order Contract

Public Sector Real Property Owners have a fiduciary responsibility to efficiently manage their buildings and other physical  infrastructure.  Traditional design-bid-build simply isn’t up to task.  Collaborative construction delivery, such a job order contracting (JOC) can meet this goal, however, the JOC Program must observe LEAN fundamental processes, not carry excessive fees, and provide mutual benefit to owners and contractors.

LEAN OpenJOC(TM) Job Order Contracting is available for any public sector owner that want to meet their fiduciary responsibilities and be in compliance with applicable regulations.

Isn’t time to rethink, reshape, and rewrite you Job Order Contract?   Just ask your peers that have already move to an open, transparent, and collaborative LEAN approach to Job Order Contracting.

Screenshot_3

LEAN Construction ALEAN Job Order Contracting Best Management Practices

Learn more…

Construction Material Costs Rising

OpenCost

+17.4 % for copper and brass mill shapes

+ 12.3 percent for steel mill products

+ 52.8% for diesel fuel, 52.8

+ 18.3% for lumber and plywood

+ 7.5% for asphalt felts and coatings

+ 5.5% for ready-mixed concrete

+ 5.0% for  paving mixtures and blocks

The best value alternative for detailed, locally researched, line item construction cost data.  www.4bt.us

Consumer Price Index + 2.9% (Past Twelve Months)

OpenCost

Consumer Price Index Summary


Technical information: (202) 691-7000  •  cpi_info@bls.gov  •  www.bls.gov/cpi
Media Contact:         (202) 691-5902  •  PressOffice@bls.gov

CONSUMER PRICE INDEX – JUNE 2018

The Consumer Price Index for All Urban Consumers (CPI-U) increased 0.1 percent in
June on a seasonally adjusted basis after rising 0.2 percent in May, the U.S.
Bureau of Labor Statistics reported today. Over the last 12 months, the all items
index rose 2.9 percent before seasonal adjustment.

The indexes for shelter, gasoline, and food all rose to lead to the seasonally
adjusted increase in the all items index. The food index increased 0.2 percent in
June, with the indexes for food at home and food away from home both rising
0.2 percent. Despite a 0.5-percent increase in the gasoline index, the energy index
declined 0.3 percent, with the indexes for electricity and natural gas both falling. 

The index for all items less food and energy rose 0.2 percent in June. The shelter
index rose 0.1 percent, and the indexes for medical care, used cars and trucks,
new vehicles, and recreation all increased. The indexes for apparel, airline fares,
and household furnishings and operations all declined in June. 

The all items index rose 2.9 percent for the 12 months ending June; this was the
largest 12-month increase since the period ending February 2012. The index for all
items less food and energy rose 2.3 percent for the 12 months ending June. The food
index increased 1.4 percent, and the energy index rose 12.0 percent, its largest
12-month increase since the period ending February 2017. 


Table A. Percent changes in CPI for All Urban Consumers (CPI-U): U.S. city
average
                                                                               
                                                                               
                                  Seasonally adjusted changes from             
                                          preceding month                      
                                                                          Un-  
                                                                       adjusted
                                                                        12-mos.
                              Dec.  Jan.  Feb.  Mar.  Apr.  May   June   ended 
                              2017  2018  2018  2018  2018  2018  2018   June  
                                                                         2018  
                                                                               
                                                                               
 All items..................    .2    .5    .2   -.1    .2    .2    .1      2.9
  Food......................    .2    .2    .0    .1    .3    .0    .2      1.4
   Food at home.............    .2    .1   -.2    .1    .3   -.2    .2       .4
   Food away from home (1)..    .2    .4    .2    .1    .2    .3    .2      2.8
  Energy....................   -.2   3.0    .1  -2.8   1.4    .9   -.3     12.0
   Energy commodities.......   -.7   5.8   -.9  -4.7   3.0   1.6    .6     24.3
    Gasoline (all types)....   -.8   5.7   -.9  -4.9   3.0   1.7    .5     24.3
    Fuel oil................    .9   9.5  -3.6   -.7   2.7   -.7   2.9     30.8
   Energy services..........    .4   -.8   1.4   -.2   -.5   -.1  -1.5      -.6
    Electricity.............    .2   -.2    .4    .0   -.6    .1  -1.4      -.1
    Utility (piped) gas                                                        
       service..............   1.0  -2.6   4.7  -1.2   -.4   -.6  -1.7     -2.1
  All items less food and                                                      
     energy.................    .2    .3    .2    .2    .1    .2    .2      2.3
   Commodities less food and                                                   
      energy commodities....    .2    .4    .1   -.1   -.1   -.1    .0      -.2
    New vehicles............    .5   -.1   -.5    .0   -.5    .3    .4      -.5
    Used cars and trucks....    .7    .4   -.3   -.3  -1.6   -.9    .7      -.7
    Apparel.................   -.3   1.7   1.5   -.6    .3    .0   -.9       .6
    Medical care commodities    .9   -.1   -.3    .1   -.2   1.3    .2      2.4
   Services less energy                                                        
      services..............    .3    .3    .2    .3    .2    .3    .2      3.1
    Shelter.................    .3    .2    .2    .4    .3    .3    .1      3.4
    Transportation services     .3    .8   1.0    .2   -.4    .0    .2      3.7
    Medical care services...    .2    .6    .0    .5    .2   -.1    .5      2.5

   1 Not seasonally adjusted.



Food

The food index rose 0.2 percent in June after being unchanged in May. The index for
food at home rose 0.2 percent, as five of the six major grocery store food group
indexes increased. The index for dairy and related products rose 0.7 percent after
declining in May. The index for cereals and bakery products increased 0.6 percent,
its largest 1-month increase since October 2015. The index for fruits and vegetables
increased 0.5 percent, with the index for fresh fruits rising 1.6 percent and the
fresh vegetables index falling 0.3 percent. The nonalcoholic beverages index
increased 0.3 percent in June, and the index for other food at home rose
0.1 percent. The index for food away from home also increased in June, rising
0.2 percent. 
   
The index for meats, poultry, fish, and eggs declined in June, falling 0.6 percent.
The decline largely reflected a 7.1-percent decrease in the eggs index. The index
for pork also declined, while the indexes for beef and poultry increased. 

Over the last 12 months, the index for food away from home increased 2.8 percent,
and the food at home index rose 0.4 percent. Five of the six major grocery store
food group indexes rose over the past year, though meats, poultry, fish, and eggs
(up 1.2 percent) was the only one to rise more than 0.5 percent. The index for
nonalcoholic beverages was the only one to decline over the year, falling
0.5 percent.  

Energy

The energy index fell 0.3 percent in June, as declines in the indexes for
electricity and natural gas more than offset an increase in the gasoline index.
The index for electricity fell 1.4 percent in June after rising in May. The index
for natural gas fell 1.7 percent, its fourth consecutive decline. The gasoline
index rose 0.5 percent in June following a 1.7-percent increase in May. (Before
seasonal adjustment, gasoline prices increased 0.3 percent in June.) 

The energy index increased 12.0 percent over the past year, as the gasoline index
increased 24.3 percent. The index for fuel oil also rose sharply, increasing
30.8 percent. In contrast, the index for natural gas declined 2.1 percent, and the
electricity index decreased slightly, falling 0.1 percent.   

All items less food and energy

The index for all items less food and energy increased 0.2 percent in June. The
shelter index rose 0.1 percent in June. The indexes for rent and owners' equivalent
rent both rose 0.3 percent, but the index for lodging away from home fell
3.7 percent in June after rising 2.9 percent in May. The medical care index
increased 0.4 percent in June. The hospital services index increased 0.8 percent,
the index for prescription drugs rose 0.3 percent, and the physicians' services
index was unchanged.  

The index for used cars and trucks rose 0.7 percent in June after declining in May.
The new vehicles index increased 0.4 percent in June following a 0.3-percent
increase in May. The index for recreation rose 0.2 percent in June, and the indexes
for communication, motor vehicle insurance, education, and alcoholic beverages also
increased.  

The apparel index fell 0.9 percent in June after being unchanged in May. The index
for airline fares also fell 0.9 percent, its third consecutive decline. The index
for household furnishings and operations fell 0.1 percent, and the index for tobacco
fell 0.4 percent. The index for personal care was unchanged in June.      

The index for all items less food and energy rose 2.3 percent over the past 12 months;
this figure has been generally trending upwards since it was 1.7 percent for the
period ending November 2017. The shelter index rose 3.4 percent over the last 12
months, and the medical care index rose 2.5 percent. Indexes that declined over the
past 12 months include those for airline fares, new vehicles, used cars and trucks,
and communication.

Not seasonally adjusted CPI measures

The Consumer Price Index for All Urban Consumers (CPI-U) increased 2.9 percent over
the last 12 months to an index level of 251.989 (1982-84=100). For the month, the
index increased 0.2 percent prior to seasonal adjustment.  

The Consumer Price Index for Urban Wage Earners and Clerical Workers (CPI-W) increased
3.1 percent over the last 12 months to an index level of 246.196 (1982-84=100). For
the month, the index increased 0.2 percent prior to seasonal adjustment.  

The Chained Consumer Price Index for All Urban Consumers (C-CPI-U) increased 2.7 percent
over the last 12 months. For the month, the index increased 0.1 percent on a not
seasonally adjusted basis. Please note that the indexes for the past 10 to 12 months are
subject to revision.	

The Consumer Price Index for July 2018 is scheduled to be released on Friday,
August 10, 2018, at 8:30 a.m. (EDT).




Technical Note

Brief Explanation of the CPI

The Consumer Price Index (CPI) measures the change in prices paid by consumers for goods
and services. The CPI reflects spending patterns for each of two population groups: all
urban consumers and urban wage earners and clerical workers. The all urban consumer group
represents about 93 percent of the total U.S. population. It is based on the expenditures
of almost all residents of urban or metropolitan areas, including professionals, the
self-employed, the poor, the unemployed, and retired people, as well as urban wage earners
and clerical workers. Not included in the CPI are the spending patterns of people living
in rural nonmetropolitan areas, farming families, people in the Armed Forces, and those in
institutions, such as prisons and mental hospitals. Consumer inflation for all urban
consumers is measured by two indexes, namely, the Consumer Price Index for All Urban
Consumers (CPI-U) and the Chained Consumer Price Index for All Urban Consumers (C-CPI-U).

The Consumer Price Index for Urban Wage Earners and Clerical Workers (CPI-W) is based on
the expenditures of households included in the CPI-U definition that meet two requirements:
more than one-half of the household's income must come from clerical or wage occupations,
and at least one of the household's earners must have been employed for at least 37 weeks
during the previous 12 months. The CPI-W population represents about 29 percent of the
total U.S. population and is a subset of the CPI-U population.

The CPIs are based on prices of food, clothing, shelter, fuels, transportation, doctors’
and dentists’ services, drugs, and other goods and services that people buy for day-to-day
living. Prices are collected each month in 75 urban areas across the country from about
5,000 housing units and approximately 22,000 retail establishments (department stores,
supermarkets, hospitals, filling stations, and other types of stores and service
establishments).  All taxes directly associated with the purchase and use of items are
included in the index. Prices of fuels and a few other items are obtained every month in
all 75 locations. Prices of most other commodities and services are collected every month
in the three largest geographic areas and every other month in other areas. Prices of most
goods and services are obtained by personal visits or telephone calls by the Bureau’s
trained representatives.

In calculating the index, price changes for the various items in each location are
aggregated using weights, which represent their importance in the spending of the
appropriate population group. Local data are then combined to obtain a U.S. city average.
For the CPI-U and CPI-W, separate indexes are also published by size of city, by region of
the country, for cross-classifications of regions and population-size classes, and for
23 selected local areas. Area indexes do not measure differences in the level of prices
among cities; they only measure the average change in prices for each area since the base
period. For the C-CPI-U, data are issued only at the national level. The CPI-U and CPI-W
are considered final when released, but the C-CPI-U is issued in preliminary form and
subject to three subsequent quarterly revisions.

The index measures price change from a designed reference date. For most of the CPI-U and
the CPI-W, the reference base is 1982-84 equals 100. The reference base for the C-CPI-U
is December 1999 equals 100.  An increase of 7 percent from the reference base, for example,
is shown as 107.000. Alternatively, that relationship can also be expressed as the price of
a base period market basket of goods and services rising from $100 to $107.

Sampling Error in the CPI

The CPI is a statistical estimate that is subject to sampling error because it is based upon
a sample of retail prices and not the complete universe of all prices. BLS calculates and
publishes estimates of the 1-month, 2-month, 6-month, and 12-month percent change standard
errors annually for the CPI-U. These standard error estimates can be used to construct
confidence intervals for hypothesis testing. For example, the estimated standard error of
the 1-month percent change is 0.03 percent for the U.S. all items CPI. This means that if we
repeatedly sample from the universe of all retail prices using the same methodology, and
estimate a percentage change for each sample, then 95 percent of these estimates will be
within 0.06 percent of the 1-month percentage change based on all retail prices. For example,
for a 1-month change of 0.2 percent in the all items CPI-U, we are 95 percent confident that
the actual percent change based on all retail prices would fall between 0.14 and 0.26 percent.
For the latest data, including information on how to use the estimates of standard error,
see https://www.bls.gov/cpi/tables/variance-estimates/home.htm.

Calculating Index Changes

Movements of the indexes from 1 month to another are usually expressed as percent changes
rather than changes in index points, because index point changes are affected by the level
of the index in relation to its base period, while percent changes are not. The following
table shows an example of using index values to calculate percent changes:
 
                                Item A                     Item B                      Item C
Year I                          112.500                    225.000                    110.000
Year II                         121.500                    243.000                    128.000
Change in index points            9.000                     18.000                     18.000
Percent change  9.0/112.500 x 100 = 8.0   18.0/225.000 x 100 = 8.0  18.0/110.000 x 100 = 16.4
Use of Seasonally Adjusted and Unadjusted Data

The Consumer Price Index (CPI) produces both unadjusted and seasonally adjusted data.
Seasonally adjusted data are computed using seasonal factors derived by the X-13ARIMA-SEATS
seasonal adjustment method. These factors are updated each February, and the new factors are
used to revise the previous 5 years of seasonally adjusted data. For more information on data
revision scheduling, please see the Factsheet on Seasonal Adjustment
at www.bls.gov/cpi/seasonal-adjustment/questions-and-answers.htm
and the Timeline of Seasonal Adjustment Methodological Changes
at www.bls.gov/cpi/seasonal-adjustment/timeline-seasonal-adjustment-methodology-changes.htm.

For analyzing short-term price trends in the economy, seasonally adjusted changes are usually
preferred since they eliminate the effect of changes that normally occur at the same time and
in about the same magnitude every year—such as price movements resulting from weather events,
production cycles, model changeovers, holidays, and sales. This allows data users to focus on
changes that are not typical for the time of year. The unadjusted data are of primary interest
to consumers concerned about the prices they actually pay. Unadjusted data are also used
extensively for escalation purposes. Many collective bargaining contract agreements and pension
plans, for example, tie compensation changes to the Consumer Price Index before adjustment for
seasonal variation. BLS advises against the use of seasonally adjusted data in escalation
agreements because seasonally adjusted series are revised annually.

Intervention Analysis

The Bureau of Labor Statistics uses intervention analysis seasonal adjustment for some CPI series.
Sometimes extreme values or sharp movements can distort the underlying seasonal pattern of price
change. Intervention analysis seasonal adjustment is a process by which the distortions caused by
such unusual events are estimated and removed from the data prior to calculation of seasonal
factors. The resulting seasonal factors, which more accurately represent the seasonal pattern, are
then applied to the unadjusted data.

For example, this procedure was used for the motor fuel series to offset the effects of the 2009
return to normal pricing after the worldwide economic downturn in 2008. Retaining this outlier
data during seasonal factor calculation would distort the computation of the seasonal portion of
the time series data for motor fuel, so it was estimated and removed from the data prior to
seasonal adjustment. Following that, seasonal factors were calculated based on this “prior adjusted”
data. These seasonal factors represent a clearer picture of the seasonal pattern in the data. The
last step is for motor fuel seasonal factors to be applied to the unadjusted data.

For the seasonal factors introduced in January 2018, BLS adjusted 38 series using intervention
analysis seasonal adjustment, including selected food and beverage items, motor fuels, and
natural gas.

Revision of Seasonally Adjusted Indexes

Seasonally adjusted data, including the U.S. city average all items index levels, are subject to
revision for up to 5 years after their original release. Every year, economists in the CPI
calculate new seasonal factors for seasonally adjusted series and apply them to the last 5 years
of data.  Seasonally adjusted indexes beyond the last 5 years of data are considered to be final
and not subject to revision. In January 2018, revised seasonal factors and seasonally adjusted
indexes for 2013 to 2017 were calculated and published. For series which are directly adjusted
using the Census X-13ARIMA-SEATS seasonal adjustment software, the seasonal factors for 2017
will be applied to data for 2018 to produce the seasonally adjusted 2018 indexes. Series which
are indirectly seasonally adjusted by summing seasonally adjusted component series have seasonal
factors which are derived and are therefore not available in advance.

Determining Seasonal Status

Each year the seasonal status of every series is reevaluated based upon certain statistical
criteria. Using these criteria, BLS economists determine whether a series should change its
status from "not seasonally adjusted" to "seasonally adjusted", or vice versa. If any of the
81 components of the U.S. city average all items index change their seasonal adjustment status
from seasonally adjusted to not seasonally adjusted, not seasonally adjusted data will be used
in the aggregation of the dependent series for the last 5 years, but the seasonally adjusted
indexes before that period will not be changed. Twenty-nine of the 81 components of the
U.S. city average all items index are not seasonally adjusted for 2018.

Contact Information

For additional information about the CPI visit www.bls.gov/cpi or contact the CPI Information and
Analysis Section at 202-691-7000 or cpi_info@bls.gov.

For additional information on seasonal adjustment in the CPI visit
https://www.bls.gov/cpi/seasonal-adjustment/home.htm or contact the CPI seasonal adjustment section
at 202-691-6968 or cpiseas@bls.gov.

Information from this release will be made available to sensory impaired individuals upon request.
Voice phone: 202-691-5200; Federal Relay Service: 1-800-877-8339.  








The PDF version of the news release

Efficient LEAN Construction Delivery

What if there was a better way to perform renovation, repair, maintenance, sustainability, and construction tasks?

What if owners and service providers could consistently assure that over 90% of projects are on-time, on-budget, and delivered per requirements?

With LEAN OpenJOC(TM) Job Order Contracting, this is not only possible, but the norm.

Learn more?

 

Component Traditional LEAN OpenJOC(TM)
Teams Fragmented, hierarchical, controlled, formed on “as-needed” basis, antagonistic and working as cross purposes Integrated team of owner and contractor technical and procurement teams and building users.
Process Linear, segregated, siloed Cyclical, concurrent, multi-level, openly shared information with open, fully transparent pricing (Detailed, locally researched unit price book)
Risk Managed individually, transferred to greatest extent Managed collectively, appropriately shared
Compensation Individually pursued, first-cost focus (lowest price of design and construction of the building alone, without maintenance and other costs) Value-based team success tied to project goals established up front, mutual beneficial outcomes
Communications Paper-based and two-dimensional Digital, cloud-based, collaborative platforms
Agreements/ Contracts Unilateral effort, allocate and transfer risk, no sharing Multilateral, open sharing of risk and information, inclusive of Operations Manual/Execution Guide
Behaviors Self-preservation, combative, short-term Open, trusting. long lasting relationships

 

“Eight-five percent of the reasons for failure are deficiencies in the systems and process rather than the employee. The role of management is to change the process rather than badgering individuals to do better.”   

– W. Edwards Deming

Job Order Contract Report – City of Scottsdale

Audit of City of Scottsdale’s Job Order Contract shows a need for improvement?

Scottsdale JOC Audit 2018

The audit of Selected Job Order Contract Construction Contracts was performed to review compliance with contract terms and evaluate the effectiveness of contract administration. Job order contracting (JOC), which uses individual job orders written against a “master” contract, is one method the City’s Capital Project Management (CPM) staff uses to procure construction services.

Auditors selected three JOC contracts and reviewed one construction project for each contract. Payments for these three JOC contracts totaled about $9.5 million in FY2016/17 and are estimated to total about $9.1 million in FY2017/18.

Negotiating the cost for individual projects is critical to ensuring the City receives quality work at a fair and reasonable price. The audit found that cost controls should be improved in the proposal evaluation phase. Guidelines have not been established for evaluating and negotiating JOC proposals, and subcontractor selection requirements were not enforced. Further, some required project approvals were not obtained, and one reviewed project appeared to have been split to bypass the individual job order limit.

More effective cost controls are also needed during the project delivery phase. CPM staff did not compare the subcontractors used to those submitted in the proposal, and did not always ensure required reviews and approvals were obtained for contractor pay requests. Further, CPM did not effectively ensure the required performance and payment bonds were provided.

As well, improved records retention practices and contract documentation can improve efficiency and consistency of contract administration.

Selected JOC Construction Contracts – Report 1804

 

Stop Using Yesterday’s Job Order Contracting Methods

Discover the power of LEAN OpenJOC(TM) Job Order Contracting.

LEAN Job Order Contracting (JOC) is a robust LEAN construction delivery method that consistently delivers 90%+ of repair, renovation, and minor new construction projects on-time, on-budget, and to the satisfaction of all participants and stakeholders….WITHOUT excessive administration fees, or a unnecessary “JOC consultant” to gum up the works.

LEAN Job Order Contracting (JOC) is based on the locally researched 4BT OpenJOC Unit Price Book and detailed line item estimating as the cost basis.   Job Order Contracting is used by universities, school districts, states, counties, and cities, as well as other non-profit, not-for-profit institutions. 

JOC is an on-demand, responsive, compliant, and easy-to-use contract structure for owners.  For contractors, JOC provides long-term, mutually beneficial relationships with owners and greater financial visibility and revenue stabilization.

Reduct Costs and Risks

Screenshot_3

For Job Order Contracting…Upgrade to LEAN Job Order Contracting Today!

Turn your JOC Program and JOC estimating into a truly efficient construction procurement and construction management asset.Turn your JOC Program and JOC estimating into a truly efficient construction procurement and construction management asset.

Reduct Costs and Risks
Generic “national construction cost databases” and “localization factors” just don’t cut it. Also, don’t pay excessive administration fees amounting to tens of thousands, and in some cases millions of dollars.
Use an intuitive, versatile platform based upon LEAN construction delivery processes that fully automates procurement, bidding, and construction processes and gives you the power to:
• Leverage localized, highly detailed line item construction cost data organized via MasterFormat (50 Division) and updated quarterly.
• Create defensible, fine-tuned estimates (owners and contractors)
• Easily flag any missing information or non-prepriced (NPP) line items
• Choose detailed or summary reports that export to PDF and Microsoft Excel.
• Develop truly beneficial owner/contractor relationships
• Eliminate confusing third-party involvement that adds costs and creates bottlenecks.

See for yourself how to consistently deliver over 90% of repair, renovation, and minor new construction projects on-time, on-budget, on-demand, and to the satisfaction of ALL participants and stakeholders.       www.4bt.us

Keep up with Regular Repair, Maintenance, Renovation, Sustainability, and Minor New Construction Projects

Real property owners and facilities managers can now efficiently execute their numerous renovation, repair, and minor new construction projects and cost-effectively reduce deferred maintenance levels.

Over 90% of all repair, renovation, and minor new construction projects can be accomplished on-time, on-budget, on-demand, and to the satisfaction of building owners, users, and construction contractors…  with complete financial transparency and in full compliance.

The combination of robust LEAN processes, locally researched detailed line item construction cost data, ongoing training and support, and cloud technology … all included within the OpenJOC(TM) Job Order Contracting Solution, provide all the tools necessary for savvy professionals.

Properly budget for and prioritize common, recurring renovation, repair, and minor new construction projects.   Small projects can be started in approximately 10 days, and more complex projects within a month.  This is a significant improvement over the months and years required by traditional construction procurement and delivery processes.

Remember, however, that all Job Order Contracting Solutions are not the same.  The OpenJOC Job Order Contracting Approach adheres to fundamental LEAN processes that mutually benefit all participants…owners and contractors… equally, yet does so with the lowest administrative and/or product costs.

LEAN Repair, Renovation, Maintenance, & Minor New Construction Projects and Building Operations

  • Easily Initiate, Manage, and Complete Projects
  • Robust, Locally Research, Detailed Line Item Construction Cost Data
  • Rapidly and Easily Cost Estimate All Construction Requirements
  • Assure Cost Visibility, Transparency and Certainty
  • Track and Manage and Report All Projects Via Simple Cloud Interface
  • Efficiently reduce deferred maintenance
  • Mitigate Risk
  • Improve Building User Satisfaction
  • Develop Long-term Mutually Beneficial Owner-Contractor Relationships
  • Maintain Compliance and Third Party Oversight
  • Maximize Performance of Physical Infrastructure (Buildings, Roads, Dams, Bridges, Airports, Mass Transit…)
  • Efficiently Respond to Scheduled and Unscheduled Requirements, Major/Minor Repairs and/or Component Replacements, and Renovations
  • Streamlined, Repeatable, Best Value Process
  • Experiencd Senior Professional Support … Training, Consulting, Strategic Planning, Line Item Construction Cost Estimating, Enterprise Cloud-based Technology, Life-cycle Capital Planning and Management, Operations, Cost Engineering and Research, and more!
Screenshot_3

LEAN Job Order Contracting OpenJOC(TM)

OpenJOC(TM) LEAN Job Order Contracting brings a new level of transparency and best value outcomes to all repair, renovation, and minor new construction projects.   The OpenJOC System supports mutually beneficial relationships among real property owners and awarded JOC contractors, and does so with the low administrative costs and full compliance and accountability.

  • Faster and more efficient than traditional construction procurement and project delivery methods.
  • Based upon locally-research detailed line item construction cost data and proven LEAN business processes
  • Competitively-bid
  • Available directly via owner-managed Job Order Contracts or government-owned and administered cooperative purchasing networks.
  • Quality, service-oriented, competitively-awarded construction contractors.
  • Independent third-party reviews of contractor proposals (available, and required within specified JOC Programs)
  • Virtually eliminate change orders and legal disputes
  • Fully cost visibility and transparency
  • Reduced procurement and administrative costs
  • High quality, more responsive construction services
  • Robust Process:  Request for Service – Joint Site Visit – Detailed Line Item Cost Proposal – Proposal Review/Negotiations – Execution – Regular Inspections – Checklist – Sign off – Warranty Period
  • Begin Projects in days versus weeks, months, or even years.

History of JOC

www.4bt.us

Detailed Line Item Estimating is REQUIRED for Best Value Outcomes

Whether estimating renovation, repair, new construction projects or creating deficiencies resulting from facility condition assessments (FCA), detailed line item estimating, using locally researched cost data, provides the best value to owners, contractors, AEs, and oversight groups. Assemblies and other higher level estimating approaches are of limited value at best, while square foot or building models provide even less benefit.

A detailed line item cost estimate is critical to construction project success or failure.        It provides a complete scope of work (SOW) that is easily understood by key participants and stakeholders, while assuring full financial visibility and transparency.

When combined with LEAN construction delivery methods, such as Job Order Contracting and Integrated Project Delivery, detailed line item estimating results in the consistent completion of over 90% of ALL projects on-time, on-budget, and to everyone’s satisfaction. When compared to the dismal industry norm of less than 20-25% of ALL projects  delivered as intended, the need for actionable, detailed line item construction cost data becomes readily apparent.

Best value line item construction cost databases share the following characteristics, all of which are provided within 4BT OpenCOST(TM) and 4BT OpenJOC(TM) data frameworks:

  1. Full descriptions written in plain English and comment terms, without the excessive use of acronyms or abbreviations.
  2. Open, adaptive unit pricing
  3. Locally researched cost data
  4. No use of cost factors or indexes
  5. Transparent and detailed breakdown of crews, labor, materials, and equipment.
  6. Standardized units of measure
  7. Organization via CSI MasterFormat

Multi-level and multi-format training of both technical and business workflows are also required in order to best leverage actionable line item construction cost data.

Learn more about how to rebuild your construction cost estimating process to be in alignment with proven LEAN construction delivery methods.

Consumer Price Index – CPI – May 2018

CPI May

The Consumer Price Index for All Urban Consumers (CPI-U) increased 0.2 percent in May on a seasonally adjusted basis after rising 0.2 percent in April, the U.S. Bureau of Labor Statistics reported today.

Over the last 12 months, the all items index rose 2.8 percent before seasonal adjustment.
The indexes f gasoline and shelter were the largest factors in the seasonally adjusted increase in the all items index, as they were in April. The gasoline index increased 1.7 percent, more than offsetting declines in some of the other energy component indexes and led to a 0.9-percent rise in the energy index. The medical care index rose 0.2 percent. The food index was unchanged over the month.

The index for all items less food and energy rose 0.2 percent in May. The shelter index rose 0.3 percent
in May. The indexes for new vehicles, education and communication, and tobacco increased in May, while the indexes for household furnishing and operations, and used cars and trucks fell.

The indexes for apparel, recreation, and personal care were unchanged.
The all items index rose 2.8 percent for the 12 months ending May, continuing its upward trend since the beginning of the year. The index for all items less food and energy rose 2.2 percent for the 12 months ending May. The food index increased 1.2 percent, and the energy index rose 11.7 percent.

Via Four BT, LLC – Efficient LEAN Construction Delivery and Locally Research Detailed Line Item Construction Cost Data

Efficient Construction Project Delivery

Local Intelligence – Leverage local knowledge and a locally researched detailed line item unit price books

Efficient Information Sharing Require collaboration among all participants and stakeholders supported by LEAN processes and enabling cloud technology

Compliance – Full financial transparency in alignment with federal, state, county, local requirements.

LEAN Strategies & Processes – Job Order Contracting, JOC, for repair, renovation, and minor new construction, Integrated Project Delivery, for major new construction.

Challenges – Required levels of owner leadership and competency.

Continuous Improvement – Team Mentality, KPIs, Required Ongoing Training

Demming

Four BT, LLC OpenJOC(TM) LEAN Construction Delivery

LEAN Facilities Management via Efficient Construction Delivery

It can be very difficult for any public sector real property owner to efficiently manage the ongoing demands for repair, renovation, and minor new construction services.

It’s even more problematic with shrinking budgets and staff… and today’s need to “do more with less.”

LEAN construction delivery, combined with locally researched detailed line item construction cost data, can virtually assure that 90%+ of your repair, renovation, and minor new construction projects are consistently completed on-time, on-budget, and to the satisfaction of building users, contractors, and oversight groups.

Four BT, LLC provides the tools, information, and technology to help you attained this significantly improve outcomes with full financial transparency and regulatory compliance.

OpenJOCTM and OpenCostTM Solutions bring LEAN best management practices to the facilities management and AEC sector.

JOC Program

OpenJOC UPB

Four BT LLC

  • Strong Management Team with Decades of JOC, Cost Data Development, and Technology Experience
  • Locally Researched Detailed Line Item Construction Cost Data
  • Full Suite of Multi-Level/Multi-Format Training Services
  • Professional Support Services
  • Cloud Technology

4BT Construction Cost Data Estimating Software for Pubic and Commercial Construction

Use 4BT OpenCOSTTM Construction Cost Data Construction Cost Estimating Data and 4BT-CE Construction Cost Estimating Software for Pubic and Commercial Construction.

4BT OpenCOSTTM Construction Cost Data Construction Cost Estimating Data and 4BT-CE Construction Cost Estimating Software for Pubic and Commercial Construction

Improve your construction cost estimating capabilities with detailed line-item construction cost data from Four BT, LLC.   Combined with our 4BT-CE software, you can create detailed construction cost estimates and reports in minutes versus hours, hours versus days, and days versus weeks.

Four BT, LLC is a a veteran owned small business that provides cost estimating and program/project/document management software, line-item detailed construction cost data and training.  We also provide LEAN construction delivery solutions, including complete packages for deploying and managing best practice Job Order Contracting Programs.

We help Real Property Owners, Facilities Management, Contractors, and AEs to do their jobs faster, better, and more cost effectively.  Our team includes experienced senior estimators, engineers, trainers, project managers, and technologists.

Attention JOC Contractors – Two Business Opportunities

Attention JOC Contractors – Business Opportunities are available to qualified, service-oriented local builders.


# 1 University of Texas – San Antonio

Link to Request for Proposal  – Job Order Contracting Services (JOC)

With over 30,000 students enrolled in undergraduate and graduate degree
programs, the University is the second largest institution in the University of Texas
System and has been one of the state’s fastest-growing public universities for
much of the last decade.

UTSA.png


# 2 Allied States Cooperative – State of Florida

State-wide cooperative contract for Job Order Contracting Services

Link to additional information

SimplifyJOCASC

 

LEAN Job Order Contracting Guide

This LEAN Job Order Contracting Guide is designed introduce a subset of best management practices to optimize repair, renovation, sustainability, and minor new construction projects.

LEAN Job Order Contracting Guide

BEST MANAGEMENT PRACTICES TO OPTIMIZE REPAIR, RENOVATION, SUSTAINABILITY, AND MINOR NEW CONSTRUCTION PROJECTS VIA LEAN JOB ORDER CONTRACTING

  • Early and ongoing involvement between all internal and external participants and stakeholders –  technical and facilities management teams, procurement professionals, building users, contractors, subcontractors…
  • Direct involvement, leadership, and management by real property  owner, without the use of an intermediary (i.e. no outsourcing of key task to a JOC consultant except for training, independent audits, etc.)
  • Direct/lump sum payments for JOC tools and services versus payment as a percentage of total JOC construction volume.
  • Decision support system to enable better capital planning decisions
  • Locally researched Unit Price Book, UPB, updated annually at a minimum
  • Required introductory and ongoing training for all participants
  • Regular independent audits
  • Enabling cloud-based, collaborative, JOC-specific technology\
  • Written JOC Operations Manual / JOC Execution Plan
  • Use of Owner’s existing technical specifications (JOC specifications should not differ from owner requirements)
  • Mutually beneficial, long-term relationships among owners, contractors, etc., based upon mutual respect and trust as well as share risk/reward.
  • Contractor coefficients of 1.00+ (low coefficient indicate issues with the tools being used or an improperly structured/managed JOC Program.
  • Best value contractor selection process

A written JOC Operations Manual, the JOC UPB, and professional training based LEAN best management practices are inextricably tied toe JOC Program success or failure.  Far too often JOC is treated a procurement mechanism only…. a way to simply speed projects through “red tape”.   Reaping the significant benefits JOC has to offer request treating JOC for what is is… a LEAN Collaborative Construction Delivery Method, of which procurement is one of several critical components.

Well designed an managed JOC Programs assure…
• The capital providers who supply funding are fully aware and in support of the JOC Program
• The acquisitions/procurement team signs off on every project after complete financial and technical review in collaboration with the owner facilities management/engineering team(s).
• The owners assign project manager regularly inspects each meeting.
• Building users are part of the planning and approval processes
• Full financial transparency
——————————————————————————————————————————-
Job Order Contracting is a long-term allocation of capital for repair, renovation, sustainability, maintenance, and minor new construction.  Job Order Contacts generally consist of a one-year base period with up to four options years.
Developing a JOC strategy can take months to complete, typically falling within a span of 30 to 90 days.  While JOC provides on-demand construction services, it is far from an ad-hoc process.   The planning and approval process should include members from leadership, asset, operations and acquisitions teams.  The teams need to communicate well and often.  Participants must have a sufficient grasp on critical business and technical aspects.
This includes a sufficient grasp upon physical and functional requirements associated with the built environment and associated priorities.   Communication and collaboration skills must be exceptionally strong to assure that requisite information is available to all who need it, when they need it.

JOC participants and users must meet on a regular basis to make “real-time” informed decisions that will maximize productivity, timeliness, quality, and overall satisfaction for resources expended.

LEAN Job Order Contacting can also reduce operating expenses by efficiently addressing maintenance and repair requirements.

LEAN Job Order Contracting Best Management Practices

JOC Best Management Practices

LEAN Job Order Contracting best management practices are critical to assuring optimal outcomes for owners, building users, and construction contractors.

Job Order Contacting (JOC) is a competitively bid, firm fixed price and indefinite quantity constriction delivery method and contract.  A Job Order Contract lasts for a specified duration of time (typically one year, with up to four option years).   Construction firms bid a coefficient (typically between 0.80 and 1.20) which is then applied to a unit price book (UPB).   The Job Order Contract specifies a minimum and maximum dollar value year and per individual JOC task order/project.    The specific location, scope, and duration of the work per individual JOC task order/project is determined for each.

Job order contracting has proven to be a robust way for owners to efficiently manage their numerous and ongoing renovation, repair, and minor new construction projects, a major project for most.

When properly applied using LEAN processes, JOC  expedites procurement and project delivery times, while also improving quality, responsiveness, and overall satisfaction for all participants and stakeholders.

A few of the many benefits of LEAN Job Order Contacting include.

  • Reducing pre-construction cost,
  • Accelerated project procurement and delivery
  • Flexible delivery scheduling…”on-demand service delivery”
  • Best value
  • Risk mitigation

 

JOC can be used in situations where the contracting and construction process needs to be streamlined and to accelerate the service delivery and improve both quality and return-on-investment.  For most real property owners in the public sector, this means virtually all repair, renovation, and minor new construction projects.

JOC is most appropriate for “small” and repetitive projects; however, they can be used it on large projects with broad scopes.  Examples of potential projects suited for JOC have included…

  • Building energy retrofits
  • Office renovations
  • Bituminous mill and overlay
  • High tension cable guardrail
  • Concrete pavement repair
  • District-wide projects (e.g., pavement striping)
  • Asbestos abatement
  • Contaminated soil disposal
  • Combining multiple noise wall maintenance contracts
  • Combining small chip seal projects
  • Culvert lining
  • Re-lighting
  • Construction of new visitor centers
  • Airport upgrades
  • Mass transit system maintenance

A Job Order Contract Unit Price Book (JOC) is also central to a successful JOC Program.  The UPB should be open, transparent, updated annually (at a minimum), contain separate demolition line items and line-item modifiers, be organized using CSI MasterFormat – 50 Division, use common terms and definitions expressed in plain English, and be locally researched.  It should include enough line items to cover 90% or more of work done via the JOC Program, but not an excessive number.   Typically, 30,000-60,000-line items are sufficient for any JOC Program.  

LEAN Construction Adoption

 

Job Order Contracting Made Simple

 

ASC JOB Made Simple

 

The OpenJOC Job Order Contracting Toolkit

Everything you need to implement at best value, best practice Job Order Contract, without excessive administrative fees, other unnecessary burdens, and with no hassles!

 

 

 

 

LEAN Construction Matters

Why LEAN Construction Matters

LEAN Construction isn’t just another construction delivery method, it should be the ONLY construction delivery process used… LEAN MATTERS!

There is simply no excuse for only 20-25% of all construction projects to be on-time, built per owner requirements, on-budget, and without any legal disputes.

LEAN construction delivery methods, such as Integrated Project Delivery, for major new construction, and Job Order Contracting, for repair, renovation, and minor new construction CONSISTENTLY ENABLE 90%+ OF ALL PROJECTS TO BE COMPLETED ON-TIME, ON-BUDGET, AND TO EVERYONE’S SATISFACTION.

Consider for a moment that 80% of the cost of any building goes into ongoing operations, repair, renovations, etc. Imagine the efficiencies to be gained if LEAN were used to address these requirements. First, life-cycle costs would drop dramatically. Second, the impact upon building users, would also have a positive and significant impact upon organizational mission.

It’s beyond time that real property owners put aside traditional construction methods and demonstrated their leadership to the benefit of their organizations and the community.

Learn more….

JOC Program

JOC Program

Do you have a JOC Program, or are you planning a JOC Program?

Current JOC Program In Place…

  1. Are you satisfied with the service level and administrative costs of your current JOC?
  2. Are your awarded JOC contractors equally satisfied?
  3. Are you aware that there is a lower cost and potentially high performing alternative to so-called leading solutions?
  4. Would you like to learn about a LEAN and Open JOC Program solution?

No JOC Program in Place…

  1. Are you aware of JOC….Have you considered using JOC? Are you aware of the benefits?
  2. If not… are you aware of the significant productivity, cost reduction, and other benefits associated with JOC?  If you are spending $2-3M/year or more in repair, renovation, or minor new construction projects?

Learn about the OpenJOC(TM) JOC Program Solution…

 

 

 

 

 

 

BiC-6D BIM for Facilities Management

BiC-6D BIM for Facilities Management. is the new module designed for the advanced needs of those who need exploit the full potential of BIM in the areas of Asset & Facilities Management.

Would you like more information on BiC-6D?

 

Watch the video  and learn how the new BiC-6D add-ons  can help achieve your business goals.

BIM for Facilities Managment

The Dimensions of BIM

BIM, in addition to the 3D visualization, can manage the dimensions of time, cost, maintenance management and sustainability.

Building in Cloud’s BiC-6D module  provides analysis, management and maintenance tools in the areas of:

  • Space Management
  • Asset management
  • Operations & Maintenance
BIM for Facilities Managment

BIM – Operation & Maintenance

A small percentage reduction in operations and maintenance cost drives significant cost savings.

Access to detailed physical asset information through the use of BIM models enables enhanced efficiencies better decision-support, increase performance relative to maintenance management activities, and overall gains functional performance and building user satisfaction.

 

BIM for Facilities Managment

Key new features of BIC-6D

Timely access to accurate information, combined with robust facilities management processes are required to assure efficient life-cycle management.

Scheduled mainenance

BiC-6D allows you to manage all schedule normal and preventive maintenance activities to maintain asset value.

From a single interface you can scheduled maintenance activities defining the time intervals and the procedures to be adopted for each type of component to be maintained,even starting from the objects contained in the BIM model.

Unscheduled maintenance

A centralized system allow users to initiate and monitor requests for maintenance or repair.

The system automatic opening of tickets and the subsequent tracking of activities with closure via customizable checklists.

Always connected to the BIM models

All maintenance activities, scheduled or unscheduled, is always accessible and connected directly to associated BIM models.

Start or display the contents of a maintenance activity directly from the BIM Viewer integrated within Building in Cloud.

3D localization of the components requiring service

The BIM mode allows a fast and easy location of components to be maintained or repaired.

The ability to “see” the environment of the component before visiting the site,  allow you to better assess any potential difficulties of the required intervention, thus limiting costs, errors and delays.

Dashboard

BiC-6D has a customizable “Dashboard” that allows you to constantly monitor all maintenance activities by period, type and location.

The system allows you to monitor the activities performed, to be performed and deferred, as well as by groups and categories of objects.

Fully integrated into Building in Cloud

The additional features of BiC-6D integrate and expand the potential of Building in Cloud making it the ideal tool for organizations optimized operations and maintenance activities by taking advantage of all the opportunities offered by BIM.

Would you like more information on  BiC-6D?

“Leveraging the wealth of  information  contained in  the BIM models can drive significant gains in efficiency and overall performance of all maintenance management activities.”  

The Benefits of LEAN Job Order Contracting

 

The Benefits of LEAN Job Order Contracting

Demming

Bringing significantly higher Productivity, better Quality, full Financial Transparency and Compliance, and Continuous Improvement to all of your repair, renovation, and minor new construction projects, without excessive fees or other administration costs, are the primary benefits of LEAN Job Order Contracting.   

The OpenJOC(TM) Approach EXCLUSIVELY applies LEAN Job Order Contracting through all processes, tools, training, and support, while ensuring that quality management is completely integrated and aligned with your organizational strategies.

Leadership

The OpenJOC Approach supports and requires greater involvement by the owner team and demonstrated leadership and competency ensure that all internal and external teams are be motivated towards the organizations goals and objectives.

Risk & Opportunity Management

The OpenJOC Approach provides a governance tool and to help identify, quantify, cost, and prioritize opportunities that contribute to bottom line improvements and organizational successes.

An Integrated Approach

The OpenJOC Approach integrates people,  process, information, and decision-support technology to drive optimal repair, renovation, and minor new construction outcomes with vetted service providers.


The LEAN Approach to Job Order Contracting

LEAN Job Order Contracting brings a common collaborative and fully transparent framework to all JOC Programs and Projects.  This helps to keep consistency, alignment across different management styles/approaches while also applying a matching common language, glossary of terms and definitions, and costs.

Exclusive Features and Benefits

The keys to LEAN Job Order Contracting and EXCLUSIVE features of the 4BT OpenJOC solution include…

  • Emphasis on leadership, collaboration, transparency, and compliance
  • Current, actionable, and locally researched line item detailed unit price cost data
  • Technology Supporting – Program Management, Project Management, Document Management, Estimate Management, Workflow Management, Issues/Task Management, Building Management, Contractor/Subcontractor Management, Component Management, Location Management, Data Export, and BIM integration.
  • Informal Compliance Reviews
  • Formal Compliance Reviews
  • Shared risk/reward
  • Performance-based incentives
  • Objective key performance metrics (KPIs)
  • Long-term relationship developed through communication,awareness, and trust
  • Mandatory and ongoing training for all participants
  • Continuous improvement centered upon leveraging experience and input from ALL participants
  • No intermediate third parties – direct owner/service provider interactions

With the LEAN Job Order Contracting in place… whether through a National Government Agency owned and managed cooperative, or via a owner-managed LEAN JOC Program, organizations will find it easier to incorporate their quality management system into the core business processes and gain significant benefits in terms of … higher  productivity, fewer, in not elimiated changes orders and legal disputes, faster project delivery times, higher financial return-on-investment, and greater overall satisfcation of all participants and stakeholders.

 

Learn more…

 
Facilities Asset Management

LEAN Construction Drives Productivity

LEAN Construction Drives Productivity

Eighty-five percent of the reasons for failure are deficiencies in the systems and process rather than the employee. The role of management is to change the process rather than badgering individuals to do better. – W. Edwards Demming

Forget BIM, forget Big Data…. the single factor causing massive inefficiencies across that AECOO sector is the lack of the consistent application of proven LEAN construction delivery methods and associated processes. (AECOO: Architecture, Engineering, Construction, Owner, Operator/Operation)

The majority of AECOO practitioners suffer with only 20%-25% of projects being on-time, on-budget, satisfactory, and/or without legal issues. Less than 5% of real property owners consistently achieve 90%+ success rates across the board.

Job Order Contracting, a LEAN integrated project delivery method specifically developed for repair, renovation, and minor new construction consistently enables superior outcomes as shown in the figure below.

LEAN processes allow owners, contractors and all participants and stakeholders, to collaborate in order to…

  • Predict project outcome with greater certainty,
  • Assure full financial transparency,
  • Prioritize projects,
  • Shorten project delivery times,
  • Virtually eliminate change orders and legal disputes,
  • Maximize dollars spent upon actual construction versus waste and/or “administration”,
  • Be compliant with regulatory requirements,
  • Track and analyze projects and success, including the used of key performance indicators,
  • Leverage the benefits of best value procurement, and
  • Develop an atmosphere of continuous improvement by integrated previously disparate skills, entities, and individuals.

The OpenJOC approach incorporated Demming’s 14 points…

  1. Create constancy of purpose for improving products and services.
  2. Adopt the new philosophy.
  3. Cease dependence on inspection to achieve quality.
  4. End the practice of awarding business on price alone; instead, minimize total cost by working with a single supplier.
  5. Improve constantly and forever every process for planning, production and service.
  6. Institute training on the job.
  7. Adopt and institute leadership.
  8. Drive out fear.
  9. Break down barriers between staff areas.
  10. Eliminate slogans, exhortations and targets for the workforce.
  11. Eliminate numerical quotas for the workforce and numerical goals for management.
  12. Remove barriers that rob people of pride of workmanship, and eliminate the annual rating or merit system.
  13. Institute a vigorous program of education and self-improvement for everyone.
  14. Put everybody in the company to work accomplishing the transformation.

Learn more…

www.4BT.us LEAN Construction Delivery Solutions

National Commercial Construction Cost Data

Justify your estimates and improve productivity with OpenCost(TM)  National Commercial Construction Cost Data.

National Commercial Construction Cost Data

As a construction cost estimator, your experience is your best tool at your disposal, but it’s not the only tool you need to be at your best and justify/validate your work.

Locally researched line item construction cost data is priceless, and at your fingertips.  National Commercial Construction Cost Data also has its role and is also available at a nominal cost.

Learn more about the independent, transparent, open, and best value source for repair, renovation, and commercial construction cost data…

 

LEAN Job Order Contracting – OpenJOC(TM)

Is your JOC Program yielding the benefits of LEAN Job Order Contracting?

LEAN Job Order Contracting, in the form of OpenJOC(TM), assures that the fundamentals of LEAN are leveraging in your JOC Program to deliver optimal, best value outcomes.

While unfortunately, some JOC Programs are used to simply speed construction projects through the traditional procurement cycles without proper due diligence, assuring LEAN fundamentals and process can delivery 90%+ of all renovation, repair, and minor new construction projects on-time, on-budget, on-demand, and to the satisfaction of ALL participants and stakeholders.  OpenJOC processes, tools, training, and services assure all this, yet do so without excessive fees and implementation costs.

 

LEAN Job Order Contracting

LEAN Job Order Contracting

Share Project Information and BIM Models Real-time

Do You Need to Share Project Information and BIM Models real-time?

BiC Start

Share Project Information and BIM Models Real-time

You Need Building in the Cloud. Watch the video.

Whether you design, build, or maintain, or operate buildings, it’s time to react to under pressures of an increasingly digital and collaborative way of working. You need easy-to-use, mobile tools that allow you to access and manage information anytime, anywhere.

Streamline, simplify and automate the all your processes, especially Construction Document Management. Free resources to invest in innovation and create competitive advantage for the enterprise and support your clients at a much higher level.

Nobody can no longer afford to operate separately and independently from the value chain …

Learn more …

Building in Cloud “Free”

Building in Cloud Free – No Cost…. No Gimmicks… Period. Create an account and start working today
If you need additional functionality, you can decide whether to move to a paid subscription… Professional or Ultimate.

Why do Public Sectors Real Property Owners Consider and Implement JOB ORDER CONTRACTING
LEAN Construction Delivery – Job Order Contracting, IPD, SABER, and more.

Unlocking the Full Potential of Job Order Contracting

Unlocking the Full Potential of Job Order Contracting requires observance of fundamental LEAN Job Order Contracting (JOC) principles, owner leadership and competency, a full open, transparent environment, and ongoing training for all participants.

The OpenJOC(TM) Approach delivers all of the tool and training needed for public sector real property owners, contractors, and subcontractors that are ready and able to fully leverage the benefits of JOC… 90%+ of ALL repair, renovation, repair, and minor new construction projects delivered on-time, on-budget, and to everyone’s satisfaction.

Job Order Contracting

List of Job Order Contracting Do’s and Don’ts…

Do’s

  1. Promote early and ongoing collaboration and information sharing among all participants and stakeholders – owners, contractors, subcontractors, facilities management, procurement, building users, senior management…
  2. Use an open,  fully transparent, and locally researched Unit Price Book organized by CSI Masterformat, inclusive of line item modifiers and separate demolition line items.
  3. Fully research the market for open, best value, and service oriented JOC tools and services providers.
  4. Require introductory, advanced, and ongoing training for all participants.
  5. Use cloud software to support lower deployment costs, JOC Program consistency, and appropriate monitoring.
  6. Develop long-term mutually beneficial relationships among all participants

Don’ts

  1. Don’t treat JOC as a procurement method or as a project.  JOC is a construction delivery method that requires adherence to LEAN construction processes.  It should never be used to simply “bypass” procurement methods or approve projects that otherwise would not have been approved.   Faster project delivery is a JOC benefit, but it doesn’t result from poor due diligence.    Furthermore, JOC is a long term…multi-year/multi-project PROGRAM and should not be treated as a single, on-of project.  Cost savings and other benefits are derived from overall program efficiencies, better informed decision-making, and taking advantage of in-house and external expertise.
  2. Don’t pay excessive fees or costs for tools for JOC services or products.   Also beware of paying for software, cost data, and/or technical specifications as a percentage of total JOC construction costs.    JOC fees can easily reach millions of dollars, without any justification or need.
  3. Don’t believe JOC is complex.  Sure, it’s not for every owner or every contractor, but if your willing to learn, and get away from inefficient and antagonistic design-bid-build… you can do it.

Learn more…

Why do Public Sectors Real Property Owners Consider and Implement JOB ORDER CONTRACTING
Job Order Contracting

How to Select a Cooperative for JOC Construction Services

Excessive Administrative Fees for JOC Construction Services – Buyer Beware

If you are a member ( a public real property owner) of Cooperative and paying an “Administrative Fee”,or any fee at all…. beware. When every dollar counts, why would a public sector entity pay a fee.., let alone a hefty one like this? There is simply no justification for the practice, especially when some Cooperatives DO NOT CHARGE MEMBERS an administrative fee, yet provide equivalent, if not superior services. Excessive administrative fees negatively impact the amount of construction dollars spent upon actual work.

As a public sector it is your responsibility to procure services on a best value basis per applicable regulations in concert with your fiduciary responsibilities.

Considerations for Selecting a Cooperative for Job Order Contract Construction Services

Leveraging JOC Construction Services via a Cooperative can provide major benefits for public sector facilities owners who have a never-ending need for on-demand, quality, and cost-effective renovation, repair, and minor new construction services.

A JOC Cooperative is a great option if,

1.) your organization has a budget of less than $2-$3M projected annually for JOC construction services,

2.) you have a need to supplement an existing JOC program due to excessive demand,

3.) your organization is new to JOC and would like to experience the process and its benefit,

4.) administrative fees are not excessive and not charged to members, and

5.) you select a robust, compliant Cooperative.

Top 4 Considerations When Selecting a JOC Cooperative

#1 – Ownership and Administration – Determine if the cooperative is both owned and managed directly by a Government Agency: Some cooperatives are owned and/or managed by for-profit, or not-for-profit companies/organizations. In these cases, the motivations for providing services may be not be fully compatible…

Learn more? info@4bt.us

Excessive Administrative Fees for JOC Construction Services - Buyer Beware

LEAN Job Order Contracting – Free Introductory Webcast

We are excited to offer an Introductory LEAN Job Order Contracting Webcast.   This is a free webcast, however, will be limited to 45 attendees.

teamwork-meeting-collaboration

The 30 minute webcast will include…

  1. Best practices for minimizing facility repair, renovation, and minor new construction costs through integrated LEAN processes, a common date environment, and supporting cloud-based collaborative technology.
  2. Which LEAN Job Order Contracting deployment is best for you..,.cooperatives or an owner-managed program.
  3. Actionable takeaways on the next steps to take to improve outcomes and satisfaction among all program participants and building users.

Register today…

Efficient Facilities Repair, Renovation and Minor New Construction Made EASY

Efficient Facilities Repair, Renovation and Minor New Construction

It can be very difficult for any public sector real property owner to efficiently manage the ongoing demands for repair, renovation, and minor new construction services.   It’s even more problematic with shrinking budgets and staff… and today’s need to “do more with less.”

LEAN construction delivery can virtually assure that 90%+ of your projects are consistently completed on-time, on-budget, and to the satisfaction of building users, contractors… and with full financial transparency and regulatory compliance.

The OpenJOCTM  Solution is LEAN Job Order Contract construction delivery made simple.  While all JOC Programs and solutions aren’t the same, the OpenJOC approach assures that fundamental JOC and LEAN principles and procedures are in place.

If you have a need to assure that facilities repair, renovation, and repair projects are delivered on-time, on-budget, and to everyone’s satisfaction, with a focus upon client best value… and without any excessive administration fees… please consider the 4BT OpenJOCTM suite of tools and services.

Facilities Repair, Renovation and Minor New ConstructionFacilities Repair, Renovation and Minor New Construction

via Four BT, LLC – LEAN Construction Delivery Solutions

Why do Public Sectors Real Property Owners Consider and Implement JOB ORDER CONTRACTING?

Why do public sector real property owners consider and implement JOB ORDER CONTRACTING?

  1. Improved financial visibility
  2. Need to reduce renovation/repair backlog
  3. Supplement existing staff (do more work with fewer staff) / Outsourcing
  4. Cost savings (administrative, procurement, design, and construction efficiencies)
  5. Time Savings – Faster Project Delivery Times
  6. Improved Quality and Satisfaction
  7. Compliance
  8. Risk Mitigation
  9. Access to more dependable contractors and long term relationships
  10. Provide higher service levels to building users
  11. Integration with internal processes to drive enhanced life-cycle asset total cost-of-ownership management
  12. Improved Sustainability

Why do Public Sectors Real Property Owners Consider and Implement JOB ORDER CONTRACTINGWhy do Public Sectors Real Property Owners Consider and Implement JOB ORDER CONTRACTINGLEAN Construction Adoption

via 4bt.us… LEAN Construction Delivery Solution Provider

JOC Unit Price Book Definition

JOC Unit Price Book Definition

JOC Unit Price Book:  A JOC UPB differs from a reference and/or generic construction cost book/guide. A JOC Unit Price Book,the foundation of any JOC Program and critical to its success optimally includes the following;

1.) Locally researched cost data (using a national average price book and associated localization factors for a JOC Program can introduce unacceptable errors in cost estimation).,

2.) Ability to be “locked” (UPB line item can’t be changed or modified by contractors or owners during specified time periods of the JOC. Non-prepriced line items (items not contained within the UPB) can be created, however, can be easily tracked/found and totaled).

3.) Contains 90% or more of the line items required for typical JOC projects to be encounter during the duration of the JOC Program.

4.) Separate demolition line items,

5.) Line item modifiers. line items that add or deduct costs from parent line items based upon quantities, specialized work practices, etc.

6.) Line item level organization by CSI Masterformat 50 Division at the line item level as well as section level,

7.) Supporting secure, cloud-based JOC software to enable collaboration and ease of access/implementation/use as well as monitoring and reporting.

An Introduction to Job Order Contracting

Life-cycle Costs for a Commercial Building

Understanding facility life-cycle costs for a commercial building is the first step towards maximizing efficiency and positive outcomes.

Once this is accomplished, the next step, understanding LEAN construction delivery methodology, virtually assures an optimal “win-win” strategy for Building Owners, AE’s, Contractors, Subs, Business Product Manufacturers, Oversight Groups, Building Users, and Oversight Groups.

There are many components of life-cycle costs:

  • First Costs – Planning, Selection, Acquisition, Construction
  • Asset Maintenance (Routine, Planned, Preventative)  of “movable” equipment
  • Repair, Renovation, and Capital Renewal (major system/subsystem cyclical replacement)
  • Adaptation (altering, updating spaces based upon functional needs)
  • Operations (utilization, utilities, security, safety, sustainability, waste, cleaning, grounds management )
  • Deconstruction, Transition, Disposition

LEAN Job Order Contracting is a collaborative, integrated project delivery method that can consistently assure that 90% of repair, renovation, and minor new construction projects on-time, on-budget, and meet required specifications.  While this and other LEAN construction delivery methods and tools have been successfully deployed for decades,  they have only recently begun to be applied to drive  efficient life-cycle management of the built environment.   An important challenge is the establishment of common terms, definitions, metrics, and ‘best-practices’.  Changing basic work practices, however, is a more significant barrier.    Greater levels of owner leadership and competency will be required before measurable sector-wide gains are achieved.

Facility Lifecycle Costs
Facility Life-cycle Costs
via Four BT, LLC – LEAN Construction Delivery Solutions – www.4BT.us

Efficient, Proven Solution for Facilities Repair, Renovation, and Minor New Construction – Job Order Contracting via the OpenJOC(TM) Framework

Collaboration Drives Efficiency

Creating a “best value chain”  for renovation, repair, and construction must be a common focus for all participants and stakeholders.

Current methods used to address the ongoing numerous repair, renovation, and minor new construction projects facing real property owners don’t work.   Far to many projects are over-budget, take far too long to procure let alone complete, and are simply not done right the first time.

Design-bid-build, and even “newer” methods (design-build, CM@R….) are relatively inefficient, antagonist, and prone to failure.   These “traditional” construction delivery methods fail to require collaboration and an atmosphere of mutual trust/respect, shared risk/reward, and financial transparency/visibility.

The construction delivery method determines the final outcome of any project or program more so than any other single element.  It is the construction delivery method that sets the overall tone and defines roles, responsibilities, workflows, metric, deliverables, and more.

LEAN construction delivery methods exist that have proven to consistently delivery 90%+ of construction projects on-time, on-budget, and to the satisfaction of all participants and stakeholders;

#1 Integrated Projects Delivery, for major new construction, and

#2 Job Order Contracting, for repair, renovation, sustainability, and minor new construction.

Let’s focus upon repair, renovation, and minor new construction as this is where real property portfolios are spending the bulk of their resources and having the most difficulty.

Job Order Contracting provides a solution, yet less than 5% of real property owners leverage the process and fewer to so to its full potential….despite being readily available for decades!   Lack of education and the need to fundamentally shift day to day business practices are the primary reasons why most are stuck in a mode of low productivity and waste.

Moving to higher productivity and significantly greater productivity and measurably improve outcomes requires a shift to BEST VALUE procurement,  and LEAN construction/ LEAN project delivery.

The requirements for LEAN construction and project delivery are listed outline as follows…

  1. Required collaboration among all participants
  2. Common data environment (including a detailed unit price book, UPB that his locally researched and organized via CSI Masterformat, and includes demolition line items, and line item modifiers.)
  3. Financial transparency
  4. Mutual trust/respect
  5. Share risk/reward
  6. Long-term relationships
  7. Documented Operations Manual/Execution Guide
  8. Fully defined workflows, roles, and responsibilities.
  9. Key performance indicators (KPIs)
  10. Required intials and ongoing training for all pariticpants
  11. Continuous improvement
  12. Supporting cloud-based technology

Technology isn’t the cause of the AECOO sector’s  rampant low productivity, it’s the endemic lack of collaboration and associate poor leadership on the part of real property owners.

30% “Wrench Time”/30% Rework: The efficiency rate in construction is notoriously low. During the last five decades, productivity in construction declines by 0.3% on average on a yearly basis. Only in the US, the labor productivity growth rate doesn’t exceed 0.1% (the lowest rate compared to other similar industries).   Rework  consumeS between 7% to 15% of the total budget in new construction.Source: McKinsey & Company

  • construction productivity growth

Construction Cost Estimating isn’t an art.

Far to many organizations and professionals call construction cost estimating an art.
It simply isn’t true. Is surgery an art? Is engineering an art?

The simple fact is that all these professions require a great deal of technical knowledge, business knowledge, people skills, and real life EXPERIENCE. … arguably a decade or more of experience!

With respect to construction cost estimating, I have yet to see a good construction cost estimator that doesn’t have field experience running wire, putting up wall board, driving heavy equipment… whatever…. not to mention being a project manager. Having a solid appreciation of means and methods,, roles, responsibilities, needs… is critical.

Experience in detailed line item construction cost estimating and using data organization schemes, such as CSI Masterformat is also required in order to drive best value and truly be part of LEAN construction delivery teams.

Sure… a lot of estimators themselves talk about estimating as an “art”, and only they have the “magic formula” and their way is the best…. but in reality, there is no secret sauce…. there is simply experience, best practice, and experience, experience, experience.

 

What is a JOC Unit Price Book

A JOC Unit Price Book is a fixed  list of detailed construction tasks and associated pricing/costs that is used to estimate costs for individual JOC projects/job orders, associated with a JOC Program. (Note: Costs and line items are typically updated annually)

LEAN Construction Adoption

Within a Job Order Contract, JOC,  each project/job order requires a detailed line item cost estimate (created by the contractor and reviewed by the owner).   This assures a fuller understand of project scope of work by both the owner and the contractor.  Each line item represents a discrete individual renovation, repair, or new construction task which includes a description, a unit of measure, crew information,  and associated labor, material, and equipment, detailed costs in addition to a total cost.   The fixed unit prices are for complete and in-place construction required to complete the construction task.

(Note:  It is a best management practice, and in some cases a requirement, that an Owner also create a detailed line item estimate using the approved JOC UPB for projects at, or above, a specific total dollar value.)

Awarded JOC contractors use the UPB to respond to individual Owner RFPs (Request for Proposal).  The awarded JOC contractor also multiplies an adjustment factor (also know as a JOC coefficient) times the total of the line item based estimate.  This is the factor(s) that was approved when the JOC contract was approved and typically ranges between 0.80 and 1.20 on an general basis.   Using the OpenJOC(TM) Job Order Contract Unit Price Book, factors range from 1.01 to 1.35.  The reason is that the OpenJOC UPB is locally research and does not include contractor overhead and profit.

(Note: Example of multiple JOC co-efficients-Normal work hour adjustment factor, Nighttime work adjustment factor, Weekend work adjustment factor – work conducted, Secure area adjustment factor.)

The contractor’s JOC coefficient includes overhead and profit, thus the unit price book should NOT include overhead and profit.

A JOC Unit Price Book should include repair, renovation, and construction tasks appropriate for the  the various types of work identified in the JOC agreement.   The content of the UPB should be sufficient to assure that 90% or more of the total costs associated with JOC individual projects are derived directly from the JOC UPB.

A JOC Unit Price Book should also be organized by CSI MasterFormat (50 Division) and include demolition line items and line item modifiers.

A JOC Unit Price Book should also be locally researched and not be dependent upon localization factors.  The application of location factors typically does not account for the multiple variations within each labor, equipment, and material area.  For example, using location factors can result in 30%+ error in labor costs alone.

Can an “off-the-shelf” construction cost catalog be used as  JOC Unit Price Book?  Well, they certainly have been, and still are to this day.  The real question is whether or not doing so is a JOC best management practice.  The answer is a simple, NO.

via 4BT.US A Best value providers of efficient LEAN collaborative construction delivery methods, tools, and support services.

An Introduction to Job Order Contracting

Request our “How to Select a JOC Unit Price Book” white paper.

The Basics of Job Order Contracting

The following is intended to introduce the basics of job order contracting (JOC).

What is Job Order Contracting?

Job Order Contracting (JOC) is a LEAN, integrated, construction project delivery method. It is competitively bid, firm fixed price and involves an indefinite delivery indefinite quantity  (IDIQ) and best value procurement process contract for a specified time.   Most JOC Programs have a one year term, with up to four option years.  Awarded JOC contractors bid individual JOC projects using a JOC unit price book (UPB).  Minimum and maximum values are established for each project as well as each program term.   The location, scope, and duration of each individual JOC project is determined under the guidelines of the JOC Program and its association JOC Operations Manual and/or JOC Execution Guide.

Why do owners and contractors use Job Order Contracting?

Job Order Contracting is perfect for owners that need to efficiently and effectively address the numerous, diverse, and ongoing renovation, repair, and minor new construction projects associated with their real property portfolios.

The main advantage of JOC is the availability of on-demand construction services that are delivered on-time, on-budget, and satisfactorily 90%+ of the time.   In addition, overall project delivery times and procurement times are significantly reduced.

From a JOC contractor perspective, benefits include longer term, positive, mutually beneficial relationships with owners and more predictable revenue streams.

How and when do you use JOC?

JOC leverages a predefined, consistent, and proven workflow, early and ongoing information sharing, and a unit price book.   The unit price book provides predefined tasks in the form of unit price line items.  Each line item includes a description, a standardized data architecture (CSI Masterformat), unit of measure, and detailed pricing, inclusive of labor, material, and equipment as appropriate.

JOC service encounter

Sample Workflow for a JOC Project

JOC can be used for any situation where the contracting process needs to be streamlined and service delivery optimized.  JOC is most appropriate for common, repetitive projects, ranging in size from $50,000+ to $2M+.

Owners can take advantage of a JOC via a Cooperative if they are learning about JOC, or have annual renovation, repair construction volumes of less than $2M/$3M in total yearly expenditures.  If annual JOC expenditures exceed this level, the owner is best served by developing and managing their own internal JOC Program.

 

 

An Introduction to Job Order Contracting

Job Order Contracting & Disaster Response

While is may be obvious that being adequately prepared before disaster strikes speeds renovation, repair, and reconstruction recovery efforts, many organizations are not aware of the advantages of LEAN Job Order Contracting (JOC) as a superior tool.

JOC softwaere

Creating and maintaining a comprehensive contingency plan with LEAN Job Order Contracting as an execution mechanism, places a stable of highly qualified, on-demand, repair, renovation, and construction contractors at your fingertips.   Furthermore, you are virtually assured that over 90% of projects will be completed on-time, on-budget, to everyone’s satisfaction, and in a fully financially transparent and compliant manner.   This level of capability is unmatched by traditional construction delivery methods that average a 25% success rate.

All the tools, training, and support are readily available to support your Job Order Contract.

Learn more.

 

LEAN Construction Adoption

LEAN construction adoption rates need to increase significantly  in order to achieve any measurable improvement in productivity.

While integrated project delivery methods have proven to consistently deliver over 90% of renovation, repair, and new construction projects on-time, on-budget, and per requirements, adoption is limited to 5% or less of the AECOO sector (architecture, engineering, construction, operations, owner).

LEAN Construction Adoption

The AECOO industry would be much better served if Owners took on their responsibility as stakeholders of the built environment.   Owners must demonstrate higher levels of leadership and competency, and require collaboration and all other core elements of LEAN construction delivery.

The pathway to significant improvement in AECOO outcomes is clear, and available to all!

The Foundation of LEAN Construction Delivery Methodology

  1. Focus upon beneficial outcomes for ALL participants and stakeholders.
  2. Best value procurement
  3. Common Data Environment (CDE) – Locally researched unit price book (UPB)
  4. Long term relationships
  5. Shared risk/reward
  6. Mutual trust/respect
  7. Required initial and ongoing training
  8. Key performance indicators (KPIs)
  9. Supporting collaborative cloud-based technologies
  10. Continuous Improvement

What’s holding the AECOO Sector back?

  1. Need for formal and professional training with a focus upon asset life-cycle total cost of ownership management and LEAN construction delivery methodologies.
  2. Inherent culture that is technology adverse, antagonistic, and highly resistant to change.
  3. Lack of required levels of owner leadership, competency, and  accountability/stewardship.

LEAN Construction Adoption