Thursday, May 15, 2025

NFPA 25 2026 Updates

NFPA 25 2026 Upcoming Updates 

NFPA 25 is the standard that governs the inspection, testing, and maintenance (ITM) of water-based fire protection systems. First published in 1992, it is updated every three years to incorporate new research, industry developments, and evolving safety requirements. Unlike some other NFPA standards, NFPA 25 is specifically designed for building owners rather than Authorities Having Jurisdiction (AHJs) and contractors. For fire protection professionals, staying informed about these updates is critical to maintaining compliance, ensuring safety, and optimizing business practices. Here’s a summarized breakdown:

NFPA 25 2020 Edition:

  • New Definitions:
    • Automated Inspection and Testing and Lowest Permissible Suction Pressure.
  • Inspection Requirements:
    • Relocation of owner responsibilities (e.g., recalled components) to enforceable sections.
    • Dry hydrant ITM requirements (not dry barrel).
  • System Performance:
    • Failure to provide system demand for fire pumps is now an impairment.
  • Revised Chapters:
    • Extensive updates to Chapters 12 and 13, including new timing requirements for waterflow alarms.

NFPA 25 2023 Edition:

  • Testing Updates:
    • Nitrogen system maintenance requirements.
    • New testing intervals (e.g., fast-response sprinklers extended to 25 years).
  • Clarifications and Additions:
    • Labels for pressure-reducing valves.
    • Inspection of head guards and painted sprinkler heads.
  • System Adjustments:
    • Chapter 14 changes for obstruction investigations (e.g., dry/preaction systems with a 25% delay threshold).
    • Consolidation of waterflow alarm device testing into Chapter 13.

 NFPA 25 2026 Proposed Changes:

1.  Dwelling Unit Definition: A Point of Contention

One of the most discussed topics in the ongoing revisions of NFPA 25 is the definition of a “dwelling unit.” A clear and standardized definition would eliminate confusion and ensure uniformity in the application of fire protection requirements. The subject has sparked debate, and although early proposals were rejected due to insufficient data, this issue remains under active discussion as the public comment period continues.

This topic’s importance lies in its potential to clarify which fire protection systems are required in residential settings versus commercial ones. With input from various stakeholders, NFPA committees are working to strike the right balance between clarity and practicality.

2.  Proposed Updates on System Definitions and Rules

Several key changes are being proposed to further define and refine certain fire protection system components. One such update is the definition of a system riser. This component, commonly understood as the point where water enters a structure, has been more clearly defined in the current revision. This change originated in NFPA 13 and was incorporated into NFPA 25 in this edition. NFPA 13 now allows hydraulic calculations using a C factor of 120 for dry pipe and preaction systems when those systems incorporate certain corrosion inhibiting technologies. The system riser, which can be vertical or horizontal, connects the water supply to the mains or cross-mains and includes a control valve. For each floor, there needs to be a hydraulic and general information sign, ensuring proper system operation. The C factor describes the relative roughness of the pipe interior, which accounts for an average amount of corrosion in both wet and dry systems over the 20-year life of the system. The build-up of corrosion byproducts on the wall of a pipe has proven to be worse in dry systems than wet systems; therefore, different C factors are prescribed by NFPA 13. The higher C factor of 120 allows for smaller pipe sizes to be used when hydraulically calculating the system for the available water supply, and therefore a less expensive system. However, an approved corrosion inhibiting technology must be maintained during the entire life of the system, or the system may become ineffective during a fire event because of the restriction in water delivery through the piping system caused by corrosion.

Because of the allowance of the higher C factor in NFPA 13 and the need to continuously maintain an approved corrosion inhibiting technology, the new edition of NFPA 25 has several proposed requirements to address that need. Previous paragraph 4.1.4.3 has been expanded from only referencing nitrogen as a corrosion inhibitor to create a new subsubsection 4.1.5 that includes all corrosion mitigation system technologies that must be maintained for the life of the system. If a corrosion mitigation system is not maintained, the dry or preaction system must be recalculated using a C factor of 100 and modified as necessary.

A related change was made to address the inspection, testing, and maintenance of corrosion-inhibiting systems with the addition of a new Section 13.11.

3.  Frozen System Guidelines: Strengthening Safety Protocols

The issue of frozen systems has also prompted attention. PI No. 172 proposes guidelines for dealing with frozen systems, For example, inspect all of the pipe, fittings, and components to determine if there is further damage or deformities, test the system with air, then perform a hydrostatic test just to name a few items. The goal is to ensure that systems are safe and operational after thawing, which may require inspecting components for damage and abnormalities. This change is a step toward enhancing system reliability, especially in colder climates.

4.  Backflow Prevention Devices: Clarity Needed

Another area of focus is the definition and regulation of backflow prevention devices, particularly Double Check Valve Assemblies (DCVA) and Reduced Pressure Backflow Assemblies (RPBA). Public comments have suggested that these devices, which are inspected less frequently, should not be given as much emphasis in the standard’s annexes.

While NFPA 25 doesn’t directly address these devices, their mention in an annex has raised concerns, especially as these devices only undergo internal inspections every five years. As the standard evolves, it will be important to determine the best way to handle these devices, ensuring that they are properly maintained without unnecessary inspection burdens.

5.  Inspector’s responsibilities & qualifications

The purpose of NFPA 25, according to the standard itself, is to “provide requirements that ensure a reasonable degree of protection for life and property from fire through minimum inspection, testing, and maintenance methods for water-based fire protection systems.” To that end, the NFPA 25 inspector should understand the scope of the standard, be familiar with its requirements, and be qualified to perform the required inspection and testing tasks. 

The inspection, testing, and maintenance (ITM) requirements of NFPA 25 have always been based on the premise that the water-based fire protection system was installed correctly in accordance with “generally accepted practice” as stated in 1.1.3. However, because many building owners and enforcers had unreasonable expectations for the inspector to be able to verify the adequacy and accuracy of the installed system, a specific statement to the contrary was added to paragraph 1.1.3.1. The intent of this statement has always been to make it clear that inspectors are not expected, or trained, to do more than inspect and test the system as installed.

In the 2023 edition, paragraph 1.1.3.1 was changed slightly to clarify that along with the inspector not being responsible for verifying the accuracy of the design of the system, the inspector isn’t responsible for verifying the accuracy of the installation of the system, either. However, there are certain tasks within NFPA 25 that require the inspector to verify the accuracy of the design. For instance, in Chapter 10, the inspector is required to consult NFPA 15, Standard for Water Spray Fixed Systems for Fire Protection, and be knowledgeable about the design requirements to successfully inspect and test the water spray system. Because there are instances in NFPA 25 that require verification of the design, a proposed change to 1.1.3.1 would acknowledge those instances in the 2026 edition.

Another change proposed for the 2026 edition addresses the qualifications of the NFPA 25 inspector. The 2023 edition lists three qualifications for personnel performing ITM functions. However, it was determined by the technical committee that it was not appropriate for NFPA 25 to dictate these prescriptive requirements. Instead, it should be left to the local jurisdiction through the legislative process to determine what the requirements are for qualified personnel. The qualifications in subparagraph 4.1.1.3.1 were deleted—they now reside in the annex to 4.1.1.3 as guidance—and paragraph 4.1.1.3 was modified to require the use of personnel qualified to perform specific ITM tasks.

6.  Annual Internal Inspections

All dry, preaction, and deluge valves will require annual internal inspections for dry pipe, preaction, and deluge systems has also come under scrutiny. Currently, dry pipe valves must be opened annually, even if they’ve been reset. Public feedback has questioned this requirement, particularly for systems with external reset capabilities. The committee is considering updates that would eliminate the five-year internal inspection restrictions for certain systems, but still require annual valve openings for others.

7.  System Gauges: Establishing Clear Guidelines

NFPA 25 previously did not specify when a system gauge is considered new, often assuming that a gauge was new until it was put into operation. PI No. 23 clarifies that the production date or shelf life of a gauge does not determine its age — the clock starts ticking once the gauge is installed in the system. This clarification should help avoid confusion and ensure that gauges are properly tested and maintained throughout their life cycle.

8.  Repair Timelines: Setting Clear Expectations

Repair timelines for both critical and non-critical systems have also been revised. PI No. 16 suggests specific repair times for degraded systems to ensure timely action. While similar standards exist in the NFPA 1 Fire Codes (2021 and 2024), the committee is still refining language around repair timelines. The second draft meeting will address whether these updates are feasible and how they should be applied across different system types.

9.  Documentation Cabinet: Enhancing Record-Keeping

The 2025 edition of NFPA 13 will require the construction of a documentation cabinet on new installations to store vital documents, such as acceptance tests, as-builts, and hydraulic data plates. This proposal, PI No. 12, aims to streamline access to key information for inspections and maintenance. However, there is ongoing debate about whether NFPA 25 should mandate the inspection of these cabinets and whether this requirement should apply retroactively to existing systems.

Conclusion

These are just a few examples of the suggested changes for the 2026 edition of NFPA 25. It is important to note that even if changes were accepted or denied in the first draft, their status is not final. The NFPA process allows for any public input or first draft item to be reopened in the second draft. For example, the requirement to open preaction and deluge valves annually was resubmitted in the second draft, proposing a change to a 3-year interval.

Understanding these updates allows you to guarantee that your water-based fire protection systems are inspected, tested, and maintained in accordance with the most recent requirements. This not only protects your property, but also the lives of those who dwell in your building.

Source: NFPA & NFSA.

Thursday, May 1, 2025

AFFF Ban in the Countries

AFFF Ban in the Countries 

AFFF firefighting foam (aqueous film forming foam), which is mainly used to fight class B fires (fires involving flammable liquids), is currently being phased out and will be banned from 4th July 2025. AFFF is also used to fight and class A fires (flammable solids).

Class B fire is a fire in flammable liquids or flammable gases, petroleum greases, tars, oils, oil-based paints, solvents, lacquers, or alcohols. For example, propane, natural gas, gasoline and kerosene fires are types of Class B fires. The use of lighter fluid on a charcoal grill, for example, creates a Class B fire. Some plastics are also Class B fire materials.

Aqueous Film-Forming Foam (AFFF) is being phased out in the United States due to its environmental and health risks. AFFF contains PFAS (polyfluoroalkyl substances), which are toxic chemicals that can accumulate in the body and cause serious health issues.

AFFF is “BAN” in Switzerland since 2011.

AFFF is “BAN” in South Australia from January 30, 2018

AFFF is “BAN” in South African country from January 30, 2020

AFFF is “BAN” in United States from July 4, 2025

AFFF is “BAN” in across the UK and EU country from July 4, 2025

AFFF is “BAN” in Japan country from October 1, 2025.

AFFF is “BAN” in New Zealand country from December 31, 2025

AFFF is “BAN” in Singapore country from January 1, 2026

US the Department of Defense (DOD) is required to discontinue the use of AFFF at its installations by October 1, 2026

Why is AFFF being banned?

AFFF contains PFOA (C8 AFFF / perfluorooctanoic acid) which belongs to a group of toxic chemicals called PFAS (C6 AFFF / polyfluoroalkyl substances). AFFF may also contain other chemicals that belong to this group.

All PFAS are known as ‘forever chemicals’ because they do not easily degrade in nature.

PFAS chemicals quickly dissolve in water and enter the ecosystem through soil, streams, and rivers. This causes environmental damage which can contaminate our drinking water and food supplies. PFAS have been found to accumulate in the bodies of animals and people, increasing in concentration over time. This can cause  a whole host of serious health issues including liver disease, kidney disease, decreased fertility, cardiovascular disorders and certain cancers.

A report by the European Chemicals Agency (ECHA) states, “there is evidence to suggest exposure to PFAS can lead to adverse health effects in humans (by eating or drinking food or water contaminated by PFAS)”.

·        Health risks

PFAS can cause liver disease, kidney disease, decreased fertility, cardiovascular disorders, and certain cancers.

·        Environmental risks

PFAS are "forever chemicals" that don't easily degrade in nature. They can contaminate drinking water and food supplies.

In 2014, Norway became the first country to ban the use of PFOA (perfluorooctanoic acid) in consumer products. This included textiles, carpets, and other coated products.

What are the challenges to phasing out AFFF? 

Phasing out Aqueous Film-Forming Foam (AFFF) presents several challenges, including finding effective and readily available alternative foams with comparable fire suppression capabilities, managing the disposal of existing AFFF stocks, ensuring adequate training for firefighters on new foam technologies, addressing potential cost implications of switching, and navigating complex regulatory landscapes regarding PFAS (per- and polyfluoroalkyl substances) which are the primary concern with AFFF use.

Key challenges:

·        Performance limitations of alternative foams:

While "fluorine-free" foams (F3) are being developed as replacements, they may not always perform as well as AFFF in certain fire scenarios, particularly for Class B hydrocarbon fires, potentially compromising fire safety in specific situations. 

·        Environmental concerns with alternative foams:

Even if new foams contain no PFAS, there might still be concerns about their potential environmental impacts, requiring thorough testing and evaluation of their breakdown products.

·        Funding requirements: 

The transition to fluorine-free foam may require substantial funding.

·        Cost of transition:

Switching to new foam technologies can involve significant upfront costs for fire departments, including purchasing new foam concentrates, training personnel, and potentially modifying existing equipment.

·        Compatibility issues: 

Fluorine-free foams may not be able to withstand certain temperatures or be mixed with water in advance of use.

·        Disposing of existing AFFF stocks:

Properly managing the disposal of large quantities of existing AFFF, which can be highly contaminated with PFAS, is a complex issue due to limited disposal options and potential environmental regulations. 

·        Regulatory complexities:

Regulations regarding PFAS are constantly evolving, making it challenging to stay compliant while transitioning to new foam technologies. 

·        Training and awareness:

Firefighters need comprehensive training on the new foam technologies, including their proper application and limitations, to ensure effective fire suppression while mitigating potential risks. 

·        Lack of standardized testing protocols:

A lack of standardized testing methods for new foam alternatives can complicate the evaluation and comparison of their performance against AFFF. 

·        Industry adaptation:

Manufacturers and distributors of firefighting foam need to adapt production lines and marketing strategies to accommodate the transition away from AFFF. 

Potential solutions:

A potential solution to the environmental concerns surrounding AFFF (Aqueous Film Forming Foam) is to transition to fluorine-free firefighting foams which maintain fire suppression capabilities while eliminating the harmful per- and polyfluoroalkyl substances (PFAS) associated with traditional AFFF formulations; other options include utilizing water sprinklers in appropriate situations, depending on the fire hazard, and exploring alternative fire suppression methods like dry chemical agents depending on the specific application.

·        Continued research and development of alternative foams:

Investing in research to develop highly effective, environmentally friendly foams with comparable performance to AFFF. 

·        Collaboration between stakeholders:

Fostering partnerships between fire departments, foam manufacturers, regulators, and environmental organizations to address challenges and develop effective transition strategies. 

·        Stricter regulations and enforcement:

Implementing clear regulations regarding PFAS content in firefighting foams and enforcing compliance to drive the transition away from AFFF. 

·        Public awareness campaigns:

Educating the public about the environmental concerns related to PFAS in firefighting foam to support policy changes and responsible management practices. 

About AFFF alternatives:

Most of these seven aqueous film forming foam alternatives have been presented to Congress as potential replacements for the fire suppressant. Each has its pros, but it’s equally important to consider their cons (mainly cost). 

Finding the right solution for your business depends entirely on your budget and the types of fires you’ll be expected to put out.

Alternatives to aqueous film forming foam (AFFF) include: 

·        Fluorine-free foams (FFFs)

These foams are a more conscious alternative to AFFF. They are made with a combination of phosphate betaine silicone surfactant (PPSS) and hydrocarbon surfactants. 

·        Hi-Ex foam

This High expansion foam is PFAS-free and uses a stable bubble structure to suffocate fires or a large volume of foam is needed to cover a wide area. It can be used with fresh or seawater. 

·        Water Mist Extinguishers

Water mist extinguishers can be used to extinguish class A, B and C fires and fires involving electrical equipment. They are environmentally friendly, non-toxic, and easier to clean up than foam extinguishers, reducing the damage caused by firefighting.

·        Carbon dioxide (CO2)

This is an environmentally friendly fire suppressant that can be used against fires involving electrical equipment and flammable liquids. 

·        Clean agents

These are synthetic fire suppressants that can be used against fires involving flammable liquids, gases, and electrical equipment. 

·        Wet chemical

This is a solution that can be used against fires involving cooking oils and fats. 

·        Dry chemical

Dry chemical agents are effective for extinguishing class B fires because they interrupt the chemical reaction of the fire and smother the flames. There are various types of dry chemical agents used for class B fires:

1.   Sodium bicarbonate (NaHCO3): Sodium bicarbonate-based dry chemical agents work by releasing carbon dioxide gas, which displaces oxygen and suffocates the fire.

2.   Potassium bicarbonate (KHCO3): Similar to sodium bicarbonate agents, they release carbon dioxide to inhibit combustion.

3.   Monoammonium phosphate (NH4H2PO4): Monoammonium phosphate-based agents are versatile and can be used for class B fires. They form a solid barrier over the surface of the flammable liquid, cutting off the fire’s oxygen supply.

4.   Ammonium phosphate (NH4)3PO4: Ammonium phosphate dry chemical agents work by forming a blanket-like barrier on the fuel surface, creating a barrier between the fuel and the oxygen.

5.   Potassium carbonate (K2CO3): Potassium carbonate agents are less common but can be used for class B fires. They help to suppress the fire by releasing carbon dioxide and inhibiting combustion.

The U.S. Department of Defense (DoD) has been funding the development of F3 products since 2017. The DoD released specifications for F3 in January 2023, which will help transition from AFFF to (MIL-PRF-32725) F3. 

What does the MIL-PRF-32725 specify?

·        The specification requires that no PFAS (per- and polyfluoroalkyl substances) are intentionally added to the production of F3 foam 

·        The specification outlines performance-based standards for F3 foam, which is intended for use on class B hydrocarbon liquid fuel fires 

What are the transition plans?

·        The DoD requires military bases to stop purchasing AFFF by October 1, 2023, and to eliminate the use altogether by October 1, 2024 

·        The FAA has also released an Aircraft Firefighting Foam Transition Plan 

Important considerations when selecting an AFFF alternative:

·        Fire hazard assessment:

Carefully evaluate the type of fire risk to choose the most effective firefighting agent. 

·        Application compatibility:

Ensure the chosen alternative is compatible with existing firefighting equipment and infrastructure. 

·        Training and safety protocols:

Proper training for firefighters is crucial when transitioning to new firefighting foam technologies. 

On about INDIA

While there isn't a specific, nationwide "ban" on AFFF (Aqueous Film Forming Foam) in India, there is growing concern and regulatory movement towards phasing out its use due to its harmful PFAS (per- and polyfluoroalkyl substances) content, similar to trends seen in other countries; meaning manufacturers and users are increasingly looking for alternative firefighting foams with lower environmental impact. 

Key points about AFFF in India:

·        PFAS Concerns:

Like globally, the primary concern with AFFF in India is its potential to contaminate water sources due to the presence of PFAS chemicals, which are considered persistent and toxic. 

·        Regulatory Developments:

While no outright ban exists, Indian environmental agencies are actively monitoring and discussing regulations to limit the use of PFAS-containing firefighting foams, including AFFF.

·        Alternative Foams:

Companies are increasingly developing and promoting "fluorine-free" firefighting foams as a safer alternative to AFFF. 

The National Fire Protection Association (NFPA) has removed the requirement for AFFF containing PFAS from their Standard on Aircraft Hangars. The NFPA has also added chapters to help users determine if AFFF containing PFAS is needed at their facility.

Fire safety legislation changes periodically, and it can be difficult for a busy organisation to stay up to date and compliant. Our highly experienced fire safety consultants offer you peace of mind by ensuring your organisation meets current fire safety regulations to keep people safe. We are always happy to advise you and answer any questions you may have.

Reference:

1.        https://usafefire.com/understanding-pfas-in-firefighting-foam/

2.        Robert H. Hill, Jr. & David C. Finster, Laboratory Safety for Chemistry Students (2d ed.: John Wiley & Sons, 2016).

3.        Fire Inspector: Principles and Practice (Jones and Bartlett Publishers, 2012), pp. 204-06.

4.        https://ecology.wa.gov/Waste-Toxics/Reducing-toxic-chemicals/Addressing-priority-toxic-chemicals/PFAS/AFFF

5.        https://www.hwhenvironmental.com/afff-alternatives/#:~:text=Rather%20than%20foam%20or%20water,released%20via%20nozzles%20and%20piping.


Tuesday, April 15, 2025

Firestop Inspection

Firestop Inspection Service

Firestop, or firestopping, is a passive fire protection method that involves sealing openings and joints in fire-rated walls and floors to prevent the spread of fire and smoke. Any construction project must include a comprehensive fire protection plan utilizing the best fire-resistant materials. In combination with both active and passive fire prevention systems, the resulting structure will then be safe for occupants.

So, as a critical part of fire resistance, fire stopping is an essential service. Sadly, many fires result from the use of improper materials to close openings and joints of a building. When this occurs, the entire building project and its future tenants are at an increased risk for fire. Thus, we have the fire stopping service SSA Integrate counts on.

An NFPA report on structure fires says, “The civilian injury rate per 1,000 reported structure fires was 12.0 from fires confined to the object of origin, 22.7 from fires that were confined to the object or room of origin, and 53.1 for fires that extended beyond the room of origin.”

Now need to know who is compitant person or qualified person to execute inspection / audit ?

The qualified person for inspecting firestopping is typically a "Inspector or auditor" who is an independent, third-party professional with documented training, knowledge, and experience in firestop systems and relevant standards like ASTM E2174 and E2393.
Required Qualifications and Certifications
Authorities Having Jurisdiction (AHJs), such as building code officials or fire marshals, require inspectors to demonstrate competence through specific certifications.
Fire Safety course from recognized institute/ Registered CLI (Central Labor Institute) or RLI (Regional Labor Institute) and having undergone the training and certification from a recognized institute as per the guidelines specified by the Directorate General of Fire Services (DGFS).
  • Third-Party Certification: Inspectors must generally pass rigorous, third-party examinations. Common certifications include the:
    • FM (Factory Mutual) Firestop Exam
    • UL (Underwriters Laboratories) Firestop Exam
    • IFC (International Firestop Council) Special Inspector Certificate
    • Intertek Qualified Personnel (IQP) Program certification for firestop inspectors
    • International Code Council (ICC) Certified Life Safety for Firestop (CLA-FS)
  • Independence: The inspector or inspection agency must be independent of the installing contractor to ensure objectivity. They should be employed and paid by the owner, not the contractor.
  • Knowledge of Standards: A qualified inspector must be knowledgeable about the relevant standards and building codes, including:
    • ASTM E2174 (Standard Practice for On-Site Inspection of Installed Fire Stops)
    • ASTM E2393 (Standard Practice for On-Site Inspection of Installed Fire Resistive Joint Systems)
    • Manufacturer's installation instructions and listed system designs
  • Continuing Education: Qualified inspectors are often required to maintain their knowledge through continued education and periodic re-examination or audits.
  • Person must be a with engineering background & member of NFPA, FCIA, International Firestop Council (IFC) etc.(Atlist one membership is mandatory)
Role of the AHJ

The local Authority Having Jurisdiction (AHJ) ultimately determines the acceptable qualifications for firestop inspectors in their specific area. They are the final authority responsible for approving the work or issuing an occupancy permit.
By using an accredited, independent third-party inspector, the AHJ can be confident that the firestopping has been thoroughly reviewed and complies with the necessary codes and standards. 

Section 1705 of the 2012 and later editions of the International Building Code (IBC) require special inspection of firestop systems, fire-resistant joint systems and perimeter fire containment systems installed in high-rise buildings defined as Risk Category III or IV. The proper installation of these critical life-safety systems helps protect the building and its occupants against the spread of fire, heat, smoke and toxic gases should a fire occur.

Has your jurisdiction adopted IBC 2012, 2015, or 2018? Then you are likely aware of the firestop special inspection requirement in Chapter 17. Many areas having lacking personnel with the competence required to conduct a knowledgeable and competent special inspection to ASTM standards E814, E2174-20 and E2393. A poor 3rd party inspection can be worse than no inspection at all – passing installations that just won’t work in the event of a fire and reporting proper but unusual firestop installations as “fails.” UL Solutions and other third-party inspection agencies conduct firestop inspections to ensure compliance with fire safety regulations.

IBC Firestop Special Inspection Requirements

1705.17 Fire-resistant penetrations and joints. In high-rise buildings or in buildings assigned to Risk Category III or IV, special inspections for through-penetrations, membrane penetration firestops, fire-resistant joint systems and perimeter fire barrier systems that are tested and listed in accordance with Sections 714.3.1.2, 714.4.2, 715.3 and 715.4 shall be in accordance with Section 1705.17.1 or 1705.17.2.

1705.17.1 Penetration firestops. Inspections of penetration Firestop systems that are tested and listed in accordance with Sections 714.3.1.2 and 714.4.2 shall be conducted by an approved agency in accordance with ASTM E 2174.

1705.17.2 Fire-resistant joint systems. Inspections of penetration Firestop systems that are tested and listed in accordance with Sections 714.3.1.2 and 714.4.2 shall be conducted by an approved agency in accordance with ASTM E 2174.

1704.2 Special inspections and tests. Where application is made to the building official for construction as specified in Section 105, the owner or the owner’s authorized agent, other than the contractor, shall employ one or more approved agencies to provide special inspections and tests during construction on the types of work specified in Section 1705 and identify the approved agencies to the building official. These special inspections and tests are in addition to the inspections by the building official that are identified in Section 110.

Fire Test Check Points

·        Is the firestop system Listed? (e.g. by Underwriters Laboratories (UL), Factory Mutual (FM), Intertek Testing Services (ITS), Southwest Research Institute (SWRi)).

·        Do the specified firestop systems comply with the standard testing requirements for the in-place conditions?

·        Is the joint intended to be load bearing, and is it indicated as a load bearing system in the listings?

·        Is the specified joint tested and listed to comply with the amount and type of expected building movement?

There are several independent testing laboratories, also referred to as third party testing agencies, which conduct the fire testing of firestop systems. The fire test results are usually included as design listings in the fire resistance directories published by the testing laboratory. These Directories are an important source of information during the plan review process and inspection process. The details, system numbers, manufacturer installation recommendations, and other design listing information are often referred to on the plan submittals. A thorough knowledge of the design listing information is critical to firestop inspections.

Inspection Process

·        Do the specifications include what test method the materials or firestop systems shall be tested to?

·        Which sections of the architectural plans contain the firestop systems details?

·        Are the specific firestop system details included on the plans?

·        Has the local authority having jurisdiction (AHJ) approved the products used in these systems?

·        Are the firestop products appropriate for the field conditions? Refer to the design listings and manufacturer datasheets

·        Are the specified fire resistive joints tested for the amount of movement and type of movement required?

Inspection

1.   The inspector shall be permitted to enter the premises to review the applicable inspection documents, to observe the installation in progress, to inspect completed work and to perform overall functions relative to their duty as inspector.

2.   The inspector shall use the inspection documents in to identify and locate fire rated assemblies on the project that are subject to the installation of firestops.

The authorizing authority (AA) shall provide the inspector with a complete set of inspection documents at least ten working days prior to the inspection. The inspector shall review all inspection documents prior to conducting any inspection. When the inspector be lives that the inspection documents contain conflicting information or documentation that the inspector believes is insufficient to perform the inspection, the inspector shall submit written notification of the potential conflict and obtain written clarification from the AA before conducting any inspection.

3.   The installer shall notify the inspector of the arrival of the materials as Billing of Materials (BOM) Quantity.

The inspector shall verify that the materials and systems used for firestopping have been tested in accordance with Test Method E814 or UL 1479-94 and are listed and labeled for the use intended.

4.   Prior to installation, the inspector shall verify that all materials received for the installation of the firestop meet the requirements inclusive and record this information on the inspection form.

5.   Prior to installation, the inspector shall verify any construction detail on the inspection documents that will not be visible after the firestop installation and record this information on the inspection form.

6.   The inspector shall not supervise or in any manner direct any aspect of the installation process. This includes, but is not limited to, the following:

6.1 Handling and storage of materials,

6.2 The mixing of materials,

6.3 The cutting or fastening of materials, and

6.4 The preparation of substrates.

7.   When work is started or completed per the schedule in point 10, the installer shall notify the inspector. Inspection of completed work shall take place within two working days from notification by the installer.

8.   The inspector shall verify and document that the firestop systems required in the inspection documents have been installed.

9.   The inspector shall verify that every firestop system inspected as required by accordance with the manufacturer’s instructions.

10. The inspector shall conduct a post installation inspection, which shall require destructive type verification of the firestop system and repair of the firestop system. A minimum of 2 %, but not less than one, of each type of firestop system shall be inspected per floor or for each area of a floor when a floor is larger than 10000 ft2 (946.7 m2). An area consists of 10000 ft2 or less. The installer shall inspect their own work, repair or replace those like firestops within the area prior to re-commencement of inspections by the inspector.

11. Inspection frequency shall depend on the method of inspection and the scope of the project. the method of inspection shall be one of the following:

11.1 The inspector shall be on site during installation and randomly witness a minimum of 10 % of each type of firestop system being installed, or

11.2 The inspector shall conduct a post installation inspection, which shall require destructive type verification of the firestop system and repair of the firestop system. A minimum of 2 %, but not less than one, of each type of firestop system shall be inspected per floor or for each area of a floor when a floor is larger than 10000 ft2 (946.7 m2). An area consists of 10000 ft2 or less.

12. Any type of firestop system noted in point 11.2 that does not comply with the inspection documents will require repair or replacement and re-inspection of that firestop system plus one full additional inspection, of the number specified in point 11.2 of that type firestop system. If non-compliance occurs on 10 %or more of the quantity of firestop products or firestop systems within point 11.1 or 11.2, then inspection of those particular type firestop systems shall cease. The installer shall inspect their own work, repair or replace those like firestops within the area prior to re-commencement of inspections by the inspector.

13.All observed deficiencies shall be documented and marked on the inspection forms. In addition, the inspector shall physically identify the location where a required firestop system has been omitted or where the inspection results indicate that the installed firestop system does not comply with the inspection documents.

14. Prior to installation, the installer and inspector are to establish a communication method and minimum notice time of deficiency or deficiencies of installation after inspection.

15. Prior to installation, the installer and inspector are to establish a communication method and minimum notice time of deficiency or deficiencies of installation after inspection.

16. Repair of firestops damaged during inspection shall be conducted according to the manufacturers recommended procedures and methods. The repaired firestop product that was damaged shall comply with the inspection documents.

17. When repairs have been made to firestop systems with documented deficiencies, the installer shall notify the inspector. Follow up inspections of firestop systems with repaired deficiencies shall take place within two working days from notification by the installer. The repaired firestop system that contained deficiencies shall comply with the inspection documents.

18.Inspection forms shall be submit ted to the AA and installer within one working day after an area is inspected.

Engineering Judgments

·        What is the policy of your building department regarding engineering judgments?

·        How are engineering judgments evaluated?

·        Are all the firestop system details made available to building inspectors?

Pre-Construction/Pre-Planning Meeting

·        Do the general contractor and subcontractors understand that the protection of penetrations and joints will be inspected?

·        Who is going to be responsible for the protection of all penetrations and joints?

·        Who is going to conduct the inspections and when?

·        What are the qualifications/experience of the firestop installer indicating expertise in that field?

Inspection Forms

1.   Inspection form—the document contained in this standard practice that is used to record information obtained during the inspection(s). It shall be submitted to the authorizing authority (AA) and installer within one working day after an area is inspected.

2.   An inspection form shall be written, and clearly de scribe the results of the inspection and any deficiencies.

3.   Inspection forms shall be sequentially numbered, starting with 1, and only contain information about one type of firestop system. Use a new inspection form for each type of firestop system. Use as many inspection forms as needed. Attach drawings and additional pages if needed.

4.   Firestop systems must not be concealed from view before being inspected and approved

5.   Walk through visual inspections should be made during the firestop installation

6.   When necessary or required, destructive evaluation will be made on various types of firestop systems

7.   Flashlights, coring device and other appropriate tools make a proper inspection easier

8.   Proper depths, annular space and product types are critical to the effectiveness of the system

9.   Construction documents detailing the firestop locations and systems must be kept on site to assist in the conduct of the inspection

10.Observe that empty containers, wrappings or boxes of the specified materials are in sufficient quantity to have been installed correctly

11.Observe that the actual products, containers, wrappings or boxes are labeled with the approved testing agency marks and are as specified in the submitted details

12.Measure the depth and width of materials as indicated in the details (sometimes density measurements are also required for products such as thermal insulation)

13.Observe that joints have been installed in such manner that the required movement can be achieved (temporary screws used to hold studs to ceiling runners must be removed)

14.Compare the installed firestop system with the approved submitted details

15.Observe a reasonable degree of workmanship, which would indicate compliance with the specified designs

16.Deficient installations must immediately be corrected and then re-inspected before concealment

Report

1.   At the end of the installation and inspection process, the inspector shall submit a final report.

2.   The final report shall contain a cover page with the following:

2.1. The project name, location, and reference number;

2.2. The name and address of the inspector;

2.3. The name and address of the installer, as well as the prime contractor if different.

2.4. The name and address of the AA; and

2.5. The name and address of the AHJ.

3.   The final report shall also contain a summary page with the following:

3.1. Types and quantity of each firestop system on the project according to the inspection documents.

3.2. Which verification method from Inspection 12 was used to ascertain compliance with the inspection documents.

3.3. The quantity of each firestop system inspected on the project and a notarized written statement by the inspector that the number of firestop systems inspected

3.4. The summary page shall also contain percentages of deficiencies for each type of firestop system referenced in the inspection documents.

3.5. A total number of deficiencies shall be expressed as a percentage of the total number of firestop systems inspected.

4.   The final report shall also contain copies of all information submitted by the inspector to the AA.

5.   The final report shall also contain copies of all inspection forms submitted during the inspection process. They shall be arranged chronologically.

Firestop vs. Fireproofing:

While firestopping prevents fire spread, fireproofing protects structural elements (like steel and concrete) from damage and collapse during a fire

The Building Codes have very clear requirements on passive fire protection. Fire investigative reports have consistently shown that unprotected or improperly protected penetrations and joints have caused millions of dollars in property damage and contributed to the loss of life and injuries due to the uncontrolled migration of fire, smoke and toxic gases. In order to promote life safety and property protection, the International Code Councils (ICC’s) International Building Code (IBC), as well as most State and local Codes, include fire testing and performance requirements for through-penetration and membrane penetration firestops, and fire resistive joint systems. These provisions are included in Chapter 7 – Fire and Smoke Protection Features.

Whenever required by the Building or Fire Code, the fire resistance ratings of floors, walls, horizontal assemblies (e.g. floor/ceiling or roof/ceiling assemblies) must be restored when an assembly is breeched to accommodate penetrations for items such as mechanical, electrical, plumbing, and communication systems. Joints between adjacent assemblies must have a fire resistance ratings, in order to maintain continuity. NFPA 101, Life Safety Code, NFPA 70, National Electrical Code, and IAPMO, Uniform Plumbing code (UPC), also include provisions related to protection of penetrations and joints.

The IBC, has explicit requirements for inspection of firestop systems and Joint systems before they are concealed.

Check Point – Have you checked your local code requirements? Model Building Codes such as the IBC, NFPA 5000 Building Code and the Life Safety Code, NFPA 101 include different requirements for firestop systems to meet certain performance and testing criteria specific to various construction assemblies. Check out the IFC website www.firestop.org for latest updates on firestop systems regulations.

REFERANCE:

1.   ASTM E2174-20a - ASTM E2174-20a

2.   ASTM E2174-20: On-Site Inspection of Installed Firestops - ANSI Blog

3.   Inspection Guidelines - International Firestop Council

4.   Fire stopping service Springfield IL | Mid-Illinois Companies