Curriculum
- 7 Sections
- 105 Lessons
- 65 Weeks
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- Understanding IFE Level 4 Certificate in Fire Safety1
- Fire Safety and Fire Engineering Principles21
- 2.1Passive Fire Safety
- 2.2Active Fire Safety
- 2.3Pressurisation
- 2.4Leakage Paths
- 2.5Automatic Suppression Systems
- 2.6Smoke Control and Air Handling
- 2.7Compartmentation
- 2.8Fire Detection and Warning Systems
- 2.9Design Fire Size
- 2.10Smoke Movement
- 2.11ASET/RSET and factors that affect different phases of evacuation
- 2.12Fire Resistance
- 2.13Fire Load
- 2.14Fire Growth
- 2.15Limit of Tenability
- 2.16t² Growth Rate
- 2.17Zone and Fire Models
- 2.18Use of flow chart to support design process
- 2.19Fire/Smoke modelling, examples of programmes
- 2.20Pedestrian flow/evacuation modelling
- 2.21Quiz 1 – Fire Safety and Fire Engineering Principles5 Questions
- Human Behaviour in Emergency Situations10
- 3.1Interaction between Fire safety systems and Human behaviour
- 3.2The physiological, behavioural and psychological effects on people confronted by a fire situation
- 3.3How behaviour of people in a fire can adversely affect evacuation and means of escape
- 3.4Emergency procedures for the safe evacuation of people from a fire situation
- 3.5Individuals with particular requirements to include the young, the old, the disabled, those with poor health, short term and long-term conditions, cognitive impairment and people from different cultures
- 3.6Behavioural aspects of people in fire and implications when planning/reviewing means of escape and evacuation procedures
- 3.7Major incidents of Note
- 3.8Identification of patterns and application of learning from previous incidents
- 3.9Case Study – Grenfell Tower
- 3.10Quiz 2 – Human Behaviour in Emergency Situations5 Questions
- Fire Protection Equipment18
- 4.1Types of System
- 4.2Success or Failure of Operation
- 4.3Automatic Fire Detectors – Radio Systems
- 4.4Automatic Fire Detection – Detector Circuits
- 4.5Zones, addressable for complex evacuation strategies, double knock, multi-purpose detectors
- 4.6Aspirating systems
- 4.7Control and Indicating Equipment
- 4.8Sprinkler systems: Commercial, Residential, and Domestic (life safety)
- 4.9Other water- based systems, drenchers, foam, water mist
- 4.10Gaseous Systems
- 4.11Oxygen Depletion Systems
- 4.12Explosion Detection Systems
- 4.13Explosion Venting Systems
- 4.14Explosion Suppression Systems
- 4.15Control of Flammable Atmospheres
- 4.16Fire Curtains
- 4.17Shutters
- 4.18Quiz 3 – Fire Protection Equipment5 Questions
- Building Design37
- 5.1Evaluate plans to identify risk and provide fire safety solutions
- 5.2Applied Protection
- 5.3Modern Methods of Construction
- 5.4Cross Laminated Timber
- 5.5Steel Frame
- 5.6Glulam
- 5.7Large structural timber
- 5.8Structural Insulated Panels
- 5.9Modular Construction
- 5.10Fire retardant, Intumescent treatments
- 5.11Upgrading fire resisting doors
- 5.12Atria
- 5.13Glazing
- 5.14Separating Walls
- 5.15Compartment Walls and Floors
- 5.16Junctions Formed by Elements of Structure
- 5.17Protected Shafts and Protecting Structures
- 5.18Fire Resisting Doors and Other Enclosures
- 5.19Claddings
- 5.20Facades
- 5.21Tunnels
- 5.22Heating Systems
- 5.23Ventilation
- 5.24Air Conditioning Systems
- 5.25Stairwell Pressurisation Systems
- 5.26Ventilation and Smoke Handling Systems
- 5.27Lifts/Elevators
- 5.28Escalators
- 5.29Travellators
- 5.30Consultation Process
- 5.31Qualitative Design Review (QDR)
- 5.32Interaction and Compatibility Between Different Materials
- 5.33Unexpected consequences of Inappropriate Selection, Use, Location, Orientation and Interaction of Materials
- 5.34Impact of Quality of Construction
- 5.35Impact of Modern Methods of Construction
- 5.36During Construction and Alterations
- 5.37Quiz 4 – Building Design5 Questions
- Fire Safety Management, Review and Advice22
- 6.1Principles and methods of risk assessment in Complex premises and Environments
- 6.2Impact of structure, materials and access
- 6.3Identification of people who may be at risk
- 6.4Identification of risks to Property and the Environment
- 6.5How to explain risks to Members of the Public and Property owners/managers
- 6.6Common causes of Fire in Different Occupancies
- 6.7How to Review Effectiveness of Current Measures
- 6.8How to provide Feedback on Effectiveness of Current measures
- 6.9Impact of Organisational Constraints
- 6.10Strategic thinking
- 6.11The Use of Fire Statistics to Inform Decisions on Fire Safety Programmes
- 6.12Risks in the Community and Prioritising Fire Safety Programmes
- 6.13Objectives of Fire Safety Education in the Community
- 6.14Contents of Fire Safety Programmes and their Purpose
- 6.15Methods to Engage Diverse Community Members and Stakeholders
- 6.16Methods to Evaluate Success of Programmes
- 6.17Strategic Thinking
- 6.18Level of Fire Safety Knowledge and Responsibility at Different parts of the Organisation
- 6.19Engaging and Training Employees in Different Premises/Workplaces and in Different roles
- 6.20Identification of Training Requirements for People with Fire Safety Responsibility
- 6.21Importance of Testing and Reviewing Precautions in Place and how to do this
- 6.22Quiz 5 – Fire Safety Management, Review and Advice5 Questions
- Preparing & Booking for Exams1
Major incidents of Note
Major incidents of Note
Major fire incidents throughout history have significantly shaped our understanding of fire safety, human behaviour, and the importance of well-designed evacuation procedures. These events often expose the vulnerabilities in systems, planning, and human response, and they serve as powerful reminders of the need for constant review, regulation, and improvement in fire safety practices. Each major incident of note not only carries tragic consequences but also contributes vital lessons that influence fire legislation, building design, and public awareness.
One of the most pivotal incidents in recent history was the Grenfell Tower fire in London in 2017. This devastating high-rise fire claimed 72 lives and highlighted critical failings in building materials, emergency planning, and communication. The use of combustible cladding, the failure to properly maintain fire doors, and the lack of a suitable evacuation strategy all contributed to the rapid spread of the fire and the loss of life. Many residents followed a ‘stay put’ policy, as advised in the building’s emergency plan, unaware that the fire was spreading uncontrollably. Grenfell prompted widespread public inquiry and reform, leading to changes in fire safety regulations, particularly around high-rise residential buildings, and brought to light the importance of listening to resident concerns and ensuring that safety warnings are acted upon.
Another historical example is the King’s Cross Underground Station fire in 1987. A relatively small fire beneath a wooden escalator developed rapidly into a flashover, killing 31 people and injuring many others. Investigations revealed that the fire spread through a previously undocumented phenomenon known as the trench effect, which was not understood at the time. More importantly, the incident underscored the consequences of poor staff training, lack of preparedness, and insufficient understanding of fire dynamics. It led to significant improvements in London Underground’s fire safety policies, including the banning of wooden escalators, enhanced fire detection systems, and better staff training in emergency procedures.
The Summerland fire in Douglas, Isle of Man, in 1973 is another tragic case that reshaped public thinking around fire safety in leisure venues. The fire killed 50 people and injured more than 80 after it rapidly engulfed a large entertainment complex made of flammable acrylic materials. Escape routes were poorly marked and obstructed, and the building’s materials contributed to the fast spread of heat and toxic smoke. The disaster exposed the dangers of prioritising aesthetics or cost savings over safety and led to stricter regulations on building materials and improved standards for places of public entertainment.
Internationally, the Station nightclub fire in Rhode Island, USA, in 2003 also serves as a major example of how quickly disaster can strike when fire safety measures are insufficient. Pyrotechnics used during a band’s performance ignited flammable soundproofing foam, resulting in a fire that spread within seconds. The overcrowded venue had inadequate exits, and panic ensued as people rushed towards the main entrance, causing a deadly bottleneck. One hundred people lost their lives, and hundreds more were injured. The incident led to stricter fire codes in the United States, particularly concerning crowd management, the use of pyrotechnics, and the requirement for sprinklers in certain venues.
Another significant event was the Bradford City Stadium fire in 1985, which killed 56 people and injured more than 250. The fire started under wooden seating and spread rapidly across the stands, trapping many spectators. Despite the presence of exits, some were locked or obstructed, delaying escape. This tragedy highlighted the dangers of combustible building materials in public venues and led to changes in stadium safety regulations across the UK, including the banning of wooden stands and requirements for clearer, more accessible escape routes.
Each of these major incidents—while differing in context, location, and cause—demonstrates a common theme: the intersection of human behaviour, design flaws, regulatory oversight, and emergency preparedness. They reveal how quickly a seemingly minor ignition can escalate into a large-scale disaster when the right safeguards are not in place or when people are unsure how to respond. They also illustrate the consequences of failing to prioritise safety, whether through inadequate construction, poor maintenance, or a lack of training.
Historical Significance
These events are not just moments of historical significance—they are continuous reminders of the need to plan for the unexpected, to treat all warnings seriously, and to never become complacent about fire risk. They inform the way we teach fire safety today, shaping training, building regulations, and public policy. Learning from major incidents is a responsibility shared across all sectors, ensuring that the lives lost in these tragedies contribute to a safer future for everyone.