ENFE615-26S1 (C) Semester One 2026

Human Behaviour in Fire

15 points

Details:
Start Date: Monday, 16 February 2026
End Date: Sunday, 21 June 2026
Withdrawal Dates
Last Day to withdraw from this course:
  • Without financial penalty (full fee refund): Sunday, 1 March 2026
  • Without academic penalty (including no fee refund): Sunday, 10 May 2026

Description

Examination and interaction of the individual with the fire-created environment. Behaviour of building occupants. How human behaviour issues are incorporated in building design.

After completion of the course, you will be able to understand and apply human behaviour in fire theories. You will also recognize the importance of demographic factors for evacuation. Furthermore, you will be able to understand and apply different egress modelling approaches, both computer models and hand calculation models, and understand their limitations.

Learning Outcomes

  • Knowledge and Understanding

  • explain and exemplify the main theories of human behaviour in fire (e.g. Role-Rule
    model, Affiliation Theory, Theory of Affordances, Help in Emergencies, and Social
    Influence)
  • state typical walking speeds for evacuation and explain how movement of people is
    influenced by demographic factors (e.g. age and mobility)
  • explain theories relating to pedestrian movement and pedestrian dynamics (e.g. merging
    flows and crowd movement)
  • explain the basic assumptions behind egress models, both computer models (course
    network, fine network and continuous models) and hand calculation models
  • explain how toxic species, heat and radiation influences the human body
  • explain models that are commonly used in guidelines and regulations (RSET models)
  • explain how Building Information Modelling (BIM) can be used in fire engineering and
    pedestrian movement/evacuation planning


    Skills and Abilities

  • analyse fire accidents and relate the behaviour of evacuees to different theories/models
  • analyse exit design based on the Theory of Affordances
  • select appropriate occupant scenarios for fire safety engineering design
  • apply different egress modelling approaches, both computer models (fine network and
    continuous models) and hand calculation models (Predtechenskii & Milinskii), to
    simulate crowd movement
  • analyse results from egress models, both computer models (course network, fine
    network and continuous models) and hand calculation models, and relate the results to
    the assumptions of the models
  • estimate the effects of toxic species, heat and radiation on evacuees (FED/FEC
    concept)
  • independently seek information (articles, reports, manuals, etc) about human behaviour
    in fire
  • communicate theories of human behaviour in fire and egress modelling results to
    laymen and experts
  • apply models to estimate the Required Safe Escape Time (RSET)
  • apply Building Information Modelling (BIM) for pedestrian movement/evacuation
    planning


    Values and Attitudes

  • adequately consider relevant ethical aspects relating to experiments with human
    participants (evacuation experiments)
  • adequately consider relevant ethical aspects relating to egress modelling

Prerequisites

ENGR403 or approval of Head of Department

Timetable 2026

Students must attend one activity from each section.

Computer Lab A
Activity Day Time Location Weeks
01 Wednesday 10:00 - 12:00 Civil - Mech E212 Civil Computer Lab
27 Apr - 3 May
Computer Lab B
Activity Day Time Location Weeks
01 Wednesday 15:00 - 17:00 Civil - Mech E212 Civil Computer Lab
27 Apr - 3 May
Computer Lab C
Activity Day Time Location Weeks
01 Thursday 10:00 - 12:00 Rata 216 CAD Lab
27 Apr - 3 May
Computer Lab D
Activity Day Time Location Weeks
01 Thursday 14:00 - 17:00 Civil - Mech E212 Civil Computer Lab
27 Apr - 3 May
Intensive Block Course A
Activity Day Time Location Weeks
01 Tuesday 09:00 - 17:00 FENZ Engineering Facility - Henderson Room
2 Mar - 8 Mar
Intensive Block Course B
Activity Day Time Location Weeks
01 Wednesday 09:00 - 17:00 FENZ Engineering Facility - Henderson Room
2 Mar - 8 Mar
Intensive Block Course C
Activity Day Time Location Weeks
01 Thursday 09:00 - 17:00 FENZ Engineering Facility - Henderson Room
2 Mar - 8 Mar
Intensive Block Course D
Activity Day Time Location Weeks
01-P1 Wednesday 09:00 - 10:00 E10
27 Apr - 3 May
01-P2 Wednesday 13:00 - 15:00 E10
27 Apr - 3 May
Intensive Block Course E
Activity Day Time Location Weeks
01 Thursday 09:00 - 10:00 Civil 216 Richard Fenwick Seminar Room
27 Apr - 3 May
Intensive Block Course F
Activity Day Time Location Weeks
01 Thursday 13:00 - 14:00 Civil 216 Richard Fenwick Seminar Room
27 Apr - 3 May

Timetable Note

There is a total of three lab exercises in the course, namely three computer labs. The three lab exercises are:
i) Lab 1 – Test of a continuous egress model (Simulex)
ii) Lab 2 – Test of a fine network egress model (STEPS)
iii) Lab 3 – Advanced egress modelling

Two of the lab exercises (Lab 1 and Lab 2) will be performed during the second block seminar of the course, i.e., in the computer labs at University of Canterbury. You will do the third lab exercise (Lab 3) on your own using your own computer.

The first laboratory exercise (Lab 1) focuses on modelling of evacuation with a a continuous model, e.g., Simulex. In the second laboratory exercise (Lab 2), a fine network model, e.g. STEPS, will be used. A very simple report is handed in for Lab 1 and Lab 2 respectively.

In the third laboratory (Lab 3), you will perform more advanced egress modelling using a model of your choice. However, we will only be able to give you support if you choose one of the models included in Lab 1 or Lab 2. An extensive written report is required for Lab 3. In this report, you will not only need to explain your modelling assumptions, but also your selection of occupant scenarios.

Course Coordinator / Lecturer

Daniel Nilsson

Lecturers

Peter Thompson and Luke de Schot

Assessment

Assessment Due Date Percentage 
Assignment 1 Report (< 2 pages) 5%
Assignment 2 Report (< 5 pages) 15%
Assignment 3 Report (< 15 pages) 30%
Lab 3 report (< 10 pages) 30%
On-line test 20%


In the course, there are a number of activities that are compulsory and need to be completed in order to pass. Not all activities contribute to your final grade, but you still need to complete them all in order to pass the course. Table 2 shows the activities contributing to your final grade. Table 3 shows the activities that do not contribute to your grade, but that you still need to complete in order to pass. In the sections below, you can find more information about the different activities.

The on-line test, which is given in the 11th course week, will consist mainly of theoretical questions, but simple calculation questions may also be included. Before the test, there will be an opportunity to ask questions, i.e., a consultation.

There are four individual assignments and one group assignment in the course. All assignments must be completed for a passing grade. The five assignments are:

1) Assignment 1 – Initial investigation of the ‘panic’ concept (individual)
2) Assignment 2 – Exit Design and the Theory of Affordances (individual)
3) Assignment 3 – Analysis of a Fire Incident (group)
4) Assignment 4 – Crowd Calculation Exercise (individual)
5) Assignment 5 – Toxicity assessment (individual)


In the first assignment (Assignment 1), you will explore the concept of ‘panic’ and its relevance for fire evacuation. You will also read relevant publications, which present different definitions of panic. The assignment shall be summarised in a short report (max 2 pages not including references) in which you need to answer a number of pre-defined questions.

In the second assignment (Assignment 2), you will take a picture of an emergency exit and analyse the design using the Theory of Affordances. A lecture about the Theory of Affordances will be given in the block part of the course and you will also practice application of the theory. Assignment 2 shall be summarised in a report (max 5 pages including images).

In the third assignment (Assignment 3), you will analyse a fire accident using the theories from the course. For examples, theories about exit choice behaviour can be used to explain people’s choice of exit, etc. You shall choose a fire accident for your analysis. Assignment 3 shall be summarised in a group report (max 15 pages excluding images) where you describe the accident and apply the theories. In the report, you also need to include a discussion and draw relevant conclusions. You will work in groups of two students in this assignment.

The fourth assignment (Assignment 4) involves calculation of crowd movement using the theory by Predtetschenski and Milinski. Assignment 4 shall be handed in as hand or computer written solutions that clearly present the assumptions, calculations and answers to the problems (no page limit, but no unnecessary text).

In the fifth and final assignment (Assignment 5), you will perform a tenability assessment for one person evacuating through smoke in a road tunnel. The tenability assessment will be performed using a spread sheet, e.g., Excel or similar. You will include the influence of reduced visibility on movement speed (if relevant). You need to hand in your spread sheet, which must be easy to follow and contain the relevant explanations/assumptions.

Textbooks / Resources

The literature in the course consists mainly of papers and book chapters. Some of the literature will be published in LEARN, but you need to download some of the publications yourself using the University of Canterbury library resources. The number of publications per lecture varies, but approximately between 1 and 3 publications are covered per lecture. Literature for the seminar can also be found in LEARN.

The egress models used in Lab 1, Lab 2 and Lab 3 will be installed in the computer rooms at the University of Canterbury. You will be provided with copies of the egress models used in Lab 1 and Lab 2 for installation on your own computer if you choose to use them for Lab 4. If you use another egress model for Lab 4, you will need to make your own arrangements.

Indicative Fees

Domestic fee $1,344.00

* All fees are inclusive of NZ GST or any equivalent overseas tax, and do not include any programme level discount or additional course-related expenses.

For further information see Civil and Environmental Engineering .

All ENFE615 Occurrences

  • ENFE615-26S1 (C) Semester One 2026