Fire Engineering Course

Lesson 1 • Chemistry of Combustion

Covers oxidation reactions, fuel types, and ignition thresholds. Provides the chemical basis for all subsequent fire behaviour analysis.

Lesson 2 • Smoke and Toxic Gas Behaviour

Analyses smoke composition, stratification, and toxicity. Directly informs ventilation tactics and occupant safety planning.

Lesson 3 • Stages of Fire Development

Traces fire progression from ignition through decay. Recognising each stage enables timely tactical decisions.

Lesson 4 • Heat Transfer Mechanisms

Explains conduction, convection, and radiation as fire spread pathways. Connects heat transfer theory to structural fire behaviour.

Lesson 1 • Material Flammability and Fire Load

Quantifies fire load density and material contribution to heat release. Provides data inputs for fire engineering calculations.

Lesson 2 • Fire Spread Across Building Elements

Analyses horizontal and vertical fire spread through structural and finish materials. Connects material properties to compartmentation strategy.

Lesson 3 • Influence of Building Geometry

Evaluates how floor plan, height, and atrium design affect fire dynamics. Supports fire engineering design decisions for complex structures.

Lesson 4 • Enclosure Fire Behaviour

Examines how walls, ceilings, and openings influence fire development. Builds directly on heat transfer and fire stage concepts.

Lesson 1 • Structural Fire Resistance Calculations

Quantifies thermal exposure on structural members and predicts failure times. Links fire dynamics to structural engineering outcomes.

Lesson 2 • Heat Release Rate Modelling

Introduces t-squared fire growth models and peak HRR estimation. Forms the quantitative core of all subsequent fire engineering analyses.

Lesson 3 • Computational Fire Modelling Tools

Introduces zone and field modelling software for fire engineering analysis. Equips students to select appropriate tools for given scenarios.

Lesson 4 • Egress and Evacuation Modelling

Applies hydraulic and agent-based methods to calculate evacuation times. Validates life safety designs against tenability windows.

Lesson 1 • System Testing and Commissioning

Establishes acceptance testing protocols and ongoing maintenance schedules. Ensures systems perform as designed throughout their service life.

Lesson 2 • System Architecture and Zoning

Covers conventional, addressable, and analogue-addressable panel architectures. Connects system type to building size and response requirements.

Lesson 3 • Alarm Notification and Signalling

Designs audible and visual notification appliance coverage for occupant alerting. Addresses intelligibility and accessibility requirements.

Lesson 4 • Detection Technology and Principles

Surveys ionisation, photoelectric, heat, and flame detector technologies. Establishes the physical basis for detector selection decisions.

Lesson 1 • Water Supply and Pump Systems

Analyses municipal supply, storage tanks, and fire pump performance curves. Ensures adequate water supply for all suppression system demands.

Lesson 2 • Special Hazard Suppression Systems

Covers gaseous, foam, and dry chemical systems for non-water-compatible hazards. Extends suppression design capability beyond standard sprinkler applications.

Lesson 3 • Hydraulic Calculations for Sprinklers

Applies Hazen-Williams and pressure-flow equations to sprinkler network design. Produces water supply demand curves for system validation.

Lesson 4 • Sprinkler System Types and Selection

Compares wet, dry, pre-action, and deluge systems against occupancy hazards. Guides system type selection based on environmental and risk factors.

Lesson 1 • Structural Fire Protection Methods

Applies intumescent coatings, board systems, and spray-applied protection to structural members. Achieves required fire resistance for exposed steel and concrete.

Lesson 2 • Fire-Rated Construction Assemblies

Evaluates tested wall, floor, and ceiling assemblies for fire resistance ratings. Provides the specification basis for compartmentation design.

Lesson 3 • Penetration Sealing and Firestopping

Covers firestop systems for pipe, cable, and duct penetrations through rated assemblies. Maintains compartment integrity at service penetrations.

Lesson 4 • Smoke Compartmentation and Barriers

Designs smoke barriers and draft stops to limit smoke migration between zones. Complements fire compartmentation with smoke control objectives.

Lesson 1 • Atrium and Large-Space Smoke Exhaust

Applies plume and exhaust equations to atrium and large-volume smoke management. Ensures smoke layer remains above occupied zones during design fires.

Lesson 2 • Stairwell and Elevator Pressurisation

Designs pressurisation systems to keep egress routes smoke-free during evacuation. Addresses door-opening forces and pressure differential limits.

Lesson 3 • Natural Smoke Ventilation Design

Calculates vent areas for natural smoke ventilation in single-storey and multi-storey buildings. Provides a cost-effective alternative to mechanical systems.

Lesson 4 • Smoke Control System Integration

Coordinates smoke control with detection, suppression, and HVAC systems. Ensures reliable system activation and correct mode sequencing.

Lesson 1 • Quantitative Risk and Consequence Analysis

Applies risk matrices and consequence modelling to evaluate fire safety solutions. Provides the analytical basis for accepting or rejecting design alternatives.

Lesson 2 • Equivalency and Trade-Off Analysis

Demonstrates how compensating measures achieve equivalent safety to prescriptive requirements. Enables creative design solutions within a defensible framework.

Lesson 3 • Fire Engineering Report Preparation

Structures a complete fire engineering report for regulatory submission and peer review. Synthesises all course competencies into a professional deliverable.

Lesson 4 • Performance-Based Design Framework

Introduces the iterative performance-based design process and stakeholder roles. Establishes the methodology that integrates all prior course knowledge.