Principles of structural fire-engineering design with special regard to the connection between real fire exposure and the heating conditions of the standard fire-resistance test (ISO 834)

Fire safety engineering — Part 1: Application of fire performance concepts to design objectives

Fire safety engineering — Part 2: Design fire scenarios and design fires

Fire safety engineering — Part 3: Assessment and verification of mathematical fire models

Fire safety engineering — Part 4: Initiation and development of fire and generation of fire effluents

Fire safety engineering — Part 5: Movement of fire effluents

Fire safety engineering — Part 6: Structural response and fire spread beyond the enclosure of origin

Fire safety engineering — Part 7: Detection, activation and suppression

Fire safety engineering — Part 8: Life safety — Occupant behaviour, location and condition

Fire safety engineering — Guidance for use of fire zone models

Fire safety engineering — Examples of fire safety objectives, functional requirements and safety criteria

Fire safety engineering — Procedures and requirements for verification and validation of calculation methods — Part 1: General

Fire safety engineering — Assessment, verification and validation of calculation methods — Part 2: Example of a fire zone model

Fire safety engineering — Assessment, verification and validation of calculation methods — Part 3: Example of a CFD model

Fire safety engineering — Assessment, verification and validation of calculation methods — Part 4: Example of a structural model

Fire safety engineering — Assessment, verification and validation of calculation methods — Part 5: Example of an Egress model

Fire safety engineering — Assessment, verification and validation of calculation methods

Fire safety engineering — Fire risk assessment — Part 1: General

Fire safety engineering — Fire risk assessment — Part 1: General

Fire Safety Engineering — Fire risk assessment — Part 2: Example of an office building

Fire safety engineering — Fire risk assessment — Part 3: Example of an industrial property

Fire safety engineering — Guidance on fire risk assessment

Fire safety engineering — Selection of design fire scenarios and design fires — Part 1: Selection of design fire scenarios

Fire safety engineering — Selection of design fire scenarios and design fires — Part 1: Selection of design fire scenarios

Fire safety engineering — Selection of design fire scenarios and design fires — Part 2: Design fires

Fire safety engineering — Selection of design fire scenarios and design fires — Part 2: Design fires

Fire safety engineering — Selection of design fire scenarios and design fires

Fire safety engineering — Requirements governing algebraic equations — Fire plumes

Fire safety engineering — Requirements governing algebraic equations — Smoke layers

Fire safety engineering — Requirements governing algebraic equations — Ceiling jet flows

Fire safety engineering — Requirements governing algebraic equations — Vent flows

Fire safety engineering — Requirements governing algebraic equations — Vent flows

Fire-safety engineering — Technical information on methods for evaluating behaviour and movement of people

Fire safety engineering — Design of evacuation experiments

Fire safety engineering — Survey of performance-based fire safety design practices in different countries

Fire safety engineering — Verification and validation protocol for building fire evacuation models

Fire safety engineering — Active fire protection systems — Part 1: General principles

Fire safety engineering — Active fire protection systems — Part 2: Estimation of heat detection time

Fire safety engineering — Estimating the reduction in movement speed based on visibility and irritant species concentration

Fire safety engineering – Concept and example applications of risk-based fire safety design of buildings

Fire safety engineering — General principles — Part 1: General

Fire safety engineering — General principles — Part 2: Example of a dry-cleaning store

Fire safety engineering — General principles

Fire safety engineering — Guidance for use of CFD calculation methods

Fire safety engineering — Requirements governing algebraic formulae — Part 1: General requirements

Fire safety engineering — Requirements governing algebraic formulae — Part 2: Fire plume

Fire safety engineering — Requirements governing algebraic formulae — Part 3: Ceiling jet flows

Fire safety engineering — Requirements governing algebraic formulae — Part 4: Smoke layers

Fire safety engineering — Requirements governing algebraic formulae — Part 5: Vent flows

Fire safety engineering — Requirements governing algebraic formulae — Part 6: Flashover related phenomena

Fire safety engineering — Requirements governing algebraic formulae — Part 6: Flashover-related phenomena

Fire safety engineering — Requirements governing algebraic formulae — Part 7: Radiation heat flux received from an open pool fire

Fire safety engineering — Requirements governing algebraic formulae — Part 7: Radiation heat flux received from an open pool fire

Fire Safety Engineering — Requirements Governing Algebraic formulae — Part 8: Flame spread on a solid surface

Fire safety engineering — Requirements governing algebraic formulae — Part 9: Ejected flame from an opening

Fire safety engineering — Performance of structures in fire — Part 1: General

Fire safety engineering — Performance of structure in fire — Part 2: Example of an airport terminal

Fire safety engineering — Performance of structure in fire — Part 3: Example of an open car park

Fire safety engineering — Performance of structures in fire — Part 4: Example of a fifteen-storey steel-framed office building

Fire safety engineering — Performance of structures in fire — Part 4: Example of a fifteen storey steel-framed office building

Fire safety engineering — Performance of structures in fire — Part 5: Example of a timber building in Canada

Fire safety engineering — Performance of structures in fire — Part 6: Example of an eight-storey office concrete building

Fire safety engineering — Performance of structures in fire — Part 8: Example of a probabilistic assessment of a concrete building

Fire safety engineering — Performance of structures in fire

Fire safety engineering - Introducing digital workflows through Building Information Modelling

Fire safety engineering — Selection of design occupant behavioural scenarios