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Fire Safety

The National Building Code of Canada (NBC) defines fire safety under Objective OS1: “an objective of this code is to limit the probability that as a result of the design or construction of the building, a person in or adjacent to a building will be exposed to an unacceptable risk of injury due to fire.”

In simpler terms, fire safety is the reduction of the potential for harm to life as a result of fire in buildings. Although the potential for being killed or injured in a fire cannot be completely eliminated, fire safety in a building can be achieved through proven building design features intended to minimize the risk of harm to people from fire to the greatest extent possible.

Designing a building to ensure minimal risk or to meet a prescribed level of safety from fire is more complex than just the simple consideration of what building materials will be used in construction of the building, since all building materials are affected by fire. Many factors must be considered including the use of the building, the number of occupants, how easily they can exit the building in case of a fire and how a fire can be contained.

Even materials that do not sustain fire do not guarantee the safety of a structure. Steel, for instance, quickly loses its strength when heated and its yield point decreases significantly as it absorbs heat, endangering the stability of the structure. An unprotected, conventional cold-formed steel joist floor system will fail in less than 10 minutes under standard laboratory fire exposure test methods, while an unprotected, conventional wood joist floor system can last up to 15 minutes. Reinforced concrete is also not immune to fire. Concrete will spall under elevated temperatures, exposing the steel reinforcement and weakening structural members. As a result, it is generally recognized that there is really no such thing as a fire-proof building.

The NBC only regulates those elements which are part of the building construction. The building contents found in any building are typically not regulated by the NBC, but in some cases they are regulated by the National Fire Code of Canada (NFC).

The occupancy classification of buildings or parts of buildings according to their intended use accounts for:

  • the quantity and type of combustible contents likely to be present (potential fire load);
  • the number of persons likely to be exposed to the threat of fire;
  • the area of the building; and
  • the height of the building.

This occupancy classification is the starting point in determining which fire safety requirements apply to a particular building. The occupancy classification of a building within the NBC dictates:

  • the type of building construction;
  • the level of fire protection; and
  • the degree of structural protection against fire spread between parts of a building that are used for different purposes.

Fires can occur in any type of structure. The severity of a fire, however, is contingent on the ability of a construction to:

  • confine the fire;
  • limit a fire’s effects on the supporting structure; and
  • control the spread of smoke and gases.

To varying degrees, any type of construction can be designed as a system (combination of construction assemblies) to limit the effects of fire. This allows occupants sufficient time to escape the building and for firefighters to safely carry out their duties.

Occupant safety also depends on other parameters such as detection, exit paths, and the use of automatic fire suppression systems such as sprinklers. These concepts form the basis of the NBC requirements.

For further information, refer to the following resources:

Wood Design Manual (Canadian Wood Council)

Fire Safety Design in Buildings (Canadian Wood Council)

National Building Code of Canada

National Fire Code of Canada

CSA O86, Engineering design in wood

Fitzgerald, Robert W., Fundamentals of Fire Safe Building Design, Fire Protection Handbook, National Fire Protection Association, Quincy, MA, 1997.

Watts, J.M. (Jr); Systems Approach to Fire-Safe Building Design, Fire Protection Handbook, National Fire Protection Association, Quincy, MA, 2008.

Rowe, W.D.; Assessing the Risk of Fire Systemically ASTM STP 762, Fire Risk Assessment, American Society for Testing and Materials, West Conshohocken, PA, 1982.

Fire Safety and Insurance In Commercial Buildings

Throughout history, protecting commercial structures from fire has been important. Fire poses risk in terms of safety to occupants, building integrity, business interruption and the economic health of a community. Consequently, reduction in the risk of fire for commercial buildings has been a significant goal for society, achieved through a better understanding of all the factors that contribute to fire risk. Designing and building structures in compliance with building and fire code requirements, and insurance industry guidelines, contributes to the reduction of fire losses. Wood has had a long history of use in commercial construction. Some of the reasons for this are:

high strength-to-weight ratio,

ease of use and constructability,

known performance characteristics,

resource abundance and renewability,

economy in construction, and

architectural aesthetics.

Wood construction that makes use of good design and appropriate fire protection measures provides a level of fire safety that is comparable to other types of construction. This document discusses some of the basic factors that affect fire risk and property insurance rates, as well as some common misconceptions regarding what conditions make commercial buildings fire-safe.

Fire Safety Challenges of Tall Wood Buildings

Acknowledging the growing importance of designing sustainable buildings and addressing overpopulation concerns, the development of engineered wood products has introduced the possibility of constructing high-rise timber structures that can improve both these conditions. However, as a combustible material, one of the biggest barriers to construction of tall timber buildings is the potential fire risk resulting from the combustible structure. In November 2012, the Fire Protection Research Foundation commissioned the Fire Safety Challenges of Tall Wood Buildings study to address this concern. Phase I of this two-phase study seeks to collect the available knowledge of fire safety in timber structures and identify gaps in knowledge that would further the understanding of fire performance of tall timber buildings. Results of the study, including a summary of timber construction and fire dynamics, is presented herein.

Fire Safety and Security: A Technical Note on Fire Safety and Security on Construction Sites In British Columbia

The construction phase of any building represents a relatively short period of time in the lifespan of the structure during which a unique set of risk scenarios are present. The risks and hazards found on a construction site differ in both nature and potential impact from those in a completed building. This occurs during a time in which the fire prevention and protection elements that are designed to be part of the completed building are not yet in place.

For these reasons, construction site safety includes some unique challenges. However, an understanding of the hazards and their potential risks is the first step towards fire prevention and mitigation.

While there are many types of hazards and risks that require consideration during the construction of all buildings, this Technical Note focuses solely on fire-related aspects.

Fire Safety and Security: A Technical Note on Fire Safety and Security on Construction Sites In Ontario

The construction phase of any building represents a relatively short period of time in the lifespan of the structure during which a unique set of risk scenarios are present. The risks and hazards found on a construction site differ in both nature and potential impact from those in a completed building. This occurs during a time in which the fire prevention and protection elements that are designed to be part of the completed building are not yet in place.

For these reasons, construction site safety includes some unique challenges. However, an understanding of the hazards and their potential risks is the first step towards fire prevention and mitigation.

While there are many types of hazards and risks that require consideration during the construction of all buildings, this Technical Note focuses solely on fire-related aspects.

Fire Safety Design In Buildings

In a recent survey of building specifiers, the majority perceived wood to be the most environmentally friendly building material. Compared to other major building materials, this is due mainly to:

  • the renewability of wood
  • the low energy consumption required for production
  • the low levels of pollutant emission during manufacture

Lately, environmental considerations have acquired more importance in the specification of materials. Technical and economic aspects of building materials have always been primary considerations for specifiers. Increasingly, however, they are considering the environmental effects when selecting appropriate building materials for their designs.

Architects, engineers and designers require accurate information to assess the true environmental consequences of the materials they specify.

The environmental impacts of various building materials have been examined by a Canadian Research Alliance using the internationally accepted method called Life-Cycle Analysis (LCA). The Alliance consists of researchers from the wood, steel and concrete industries as well as university groups and consultants.

Structural retrofitting techniques and fire safety regulations for structures in glulam

This Rothoblaas document provides an overview of structural retrofitting strategies for glulam buildings, with a focus on meeting fire safety regulations and performance requirements. Intended for engineers, designers, and building professionals, the document addresses key considerations when upgrading or reinforcing existing glulam structures.

The document explores common retrofitting techniques, connection solutions, and system-level interventions that can enhance structural capacity while maintaining compliance with fire safety objectives. It also examines how fire regulations influence retrofit design decisions, including material selection, detailing, and protection strategies for glulam elements.

Developed as a technical reference, this document supports informed retrofit planning and design, helping project teams balance structural performance, fire safety, and regulatory compliance when working with existing glulam structures.

Tall Wood Course of Construction Site Fire Safety

The vulnerability of any building, regardless of the material used, in a fire situation is higher during the construction phase when compared to the susceptibility of the building after it has been completed and occupied. This is because the risks and hazards found on a construction site differ both in nature and potential impact from those in a completed building; and these risks are occurring at a time when the fire prevention elements that are designed to be part of the completed building are not yet in place. For these reasons, construction site fire safety includes some unique challenges. Developing an understanding of these hazards and their potential risks is the first step towards fire prevention and mitigation during the course of construction (CoC).

BP2 – Fire Safety In Residential Buildings

Since wood-frame construction was first used in the early 1800’s, North Americans have developed and been sheltered by wood-frame building technology — from single family homes and progressing over the decades to larger, multi-storey apartment buildings and townhouses. In fact, over 90% of the 1.5 million homes built in North America each year are constructed using woodframe construction. Wood-frame construction provides North Americans with the world’s highest housing standards. There are many reasons for the success of the wood frame system:

It is easy to build

It has a proven track record

It delivers excellent value

It has a high strength to weight ratio

It is energy efficient

It is one of the safest building systems in extreme conditions like earthquakes

Wood is an abundant renewable resource

In addition, modern wood-frame construction provides a comparable level of fire safety to non-combustible construction. This technical bulletin will discuss some of the basic principles of fire safety, and dispel some myths about what makes residential buildings fire-safe for both single family homes and multi-family residential buildings.

ProTEKtor II® – High Performance Fire Protectant for Wood Frame & Sheet Components

BarrierTEK’s ProTEKtor II® – High Performance Fire Protectant for Wood Frame & Sheet Components document provides technical guidance on the use of ProTEKtor II® fire-retardant treatment for improving fire performance in exposed and concealed wood-frame construction. The resource is intended for architects, engineers, builders, and code officials involved in projects where enhanced fire protection for wood framing and sheathing is required.

The document describes product properties, treatment processes, and performance characteristics of ProTEKtor II® when applied to wood frame members and sheet goods such as plywood and oriented strand board (OSB). It outlines how the treatment supports fire safety objectives by reducing flame spread and contributing to improved fire resistance across a range of wood-frame assemblies.

Developed as a practical technical reference, the ProTEKtor II® document supports informed specification and application of fire-protectant-treated wood products, helping project teams integrate enhanced fire performance into wood-frame buildings while addressing code and design considerations.

AtTEK® – High Performance Fire Protectant for Wood Frame Attic Components

BarrierTEK’s AtTEK® – High Performance Fire Protectant for Wood Frame Attic Components document provides technical information on the use of AtTEK® fire-retardant treatment for enhancing fire performance in concealed wood framing applications. The resource is intended for designers, builders, and code officials involved in wood-frame construction where attic fire protection is a key consideration.

The document outlines product characteristics, treatment methods, and performance attributes of AtTEK® when applied to wood frame attic components, including framing members and assemblies located within concealed roof spaces. It describes how the treatment supports fire safety objectives by slowing flame spread and contributing to improved fire performance in vulnerable areas of wood-frame buildings.

Developed as a technical reference, the AtTEK® document supports informed decision-making during design, specification, and construction, helping project teams understand how fire-protectant-treated wood can be effectively incorporated into attic assemblies to meet project and code requirements.

Fire Code

National Fire Code of Canada

The National Building Code of Canada (NBC) and the National Fire Code of Canada (NFC), both published by the National Research Council of Canada (NRC) and developed by the Canadian Commission on Building and Fire Codes (CCBFC), are developed as companion documents.

The NBC establishes minimum standards for the health and safety of the occupants of new buildings. It also applies to the alteration of existing buildings, including changes in occupancy. The NBC is not retroactive. That is, a building constructed in conformance with a particular edition of the NBC, which is in effect at the time of its construction, is not automatically required to conform to the subsequent edition of the NBC. That building would only be required to conform to an updated version of the NBC if it were to undergo a change in occupancy or alterations which invoke the application of the new NBC in effect at the time of the change in occupancy or major alteration.

The NFC addresses fire safety during the operation of facilities and buildings. The requirements in the NFC, on the other hand, are intended to ensure the level of safety initially provided by the NBC is maintained. With this objective, the NFC regulates:

  • the conduct of activities causing fire hazards
  • the maintenance of fire safety equipment and egress facilities
  • limitations on building content, including the storage and handling of hazardous products
  • the establishment of fire safety plans

The NFC is intended to be retroactive with respect to fire alarm, standpipe and sprinkler systems. In 1990, the NFC was revised to clarify that such systems “shall be provided in all buildings where required by and in conformance with the requirements of the National Building Code of Canada.” This ensures that buildings are adequately protected against the inherent risk at the same level as the NBC would require for a new building. It does not concern other fire protection features such as smoke control measures or firefighter’s elevators. The NFC also ensures that changes in building use do not increase the risk beyond the limits of the original fire protection systems.

The NBC and the NFC are written to minimize the possibility of conflict in their respective contents. Both must be considered when constructing, renovating or maintaining buildings. They are complementary, in that the NFC takes over from the NBC once the building is in operation. In addition, older structures which do not conform to the most current level of fire safety can be made safer through the requirements of the NFC.

The most recent significant changes in the NFC relate the construction of six-storey buildings using combustible construction. As a result, eight additional protection measures related to mid-rise combustible buildings have been added to address fire hazards during construction when fire protection features are not yet in place.

Fire Safety
Fire Safety and Security: A Technical Note on Fire Safety and Security on Construction Sites In British Columbia
Fire Safety and Security: A Technical Note on Fire Safety and Security on Construction Sites In Ontario
Fire Safety Design In Buildings
Structural retrofitting techniques and fire safety regulations for structures in glulam
Tall Wood Course of Construction Site Fire Safety
BP2 – Fire Safety In Residential Buildings
ProTEKtor II® – High Performance Fire Protectant for Wood Frame & Sheet Components
AtTEK® – High Performance Fire Protectant for Wood Frame Attic Components
The National Building Code of Canada (NBC) defines fire safety under Objective OS1: “an objective of this code is to limit the probability that as a result of the design or...
Throughout history, protecting commercial structures from fire has been important. Fire poses risk in terms of safety to occupants, building integrity, business interruption...
Acknowledging the growing importance of designing sustainable buildings and addressing overpopulation concerns, the development of engineered wood products has introduced the...
The construction phase of any building represents a relatively short period of time in the lifespan of the structure during which a unique set of risk scenarios are present....
The construction phase of any building represents a relatively short period of time in the lifespan of the structure during which a unique set of risk scenarios are present....
In a recent survey of building specifiers, the majority perceived wood to be the most environmentally friendly building material. Compared to other major building materials...
This Rothoblaas document provides an overview of structural retrofitting strategies for glulam buildings, with a focus on meeting fire safety regulations and performance...
The vulnerability of any building, regardless of the material used, in a fire situation is higher during the construction phase when compared to the susceptibility of the...
Since wood-frame construction was first used in the early 1800’s, North Americans have developed and been sheltered by wood-frame building technology -- from single family...
BarrierTEK’s ProTEKtor II® – High Performance Fire Protectant for Wood Frame & Sheet Components document provides technical guidance on the use of ProTEKtor II®...
BarrierTEK’s AtTEK® – High Performance Fire Protectant for Wood Frame Attic Components document provides technical information on the use of AtTEK® fire-retardant...
National Fire Code of Canada The National Building Code of Canada (NBC) and the National Fire Code of Canada (NFC), both published by the National Research Council of Canada...
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