THE longer I have been involved in the field of fire safety, the more convinced I become that protecting lives is never simply about complying with a checklist.
Many people assume that if a building satisfies every statutory requirement, then it is automatically safe.
While legislation and prescriptive fire codes remain the backbone of our fire safety system, the reality is far more complex.
Buildings today are becoming increasingly sophisticated, incorporating new technologies, innovative materials and specialised industrial processes that were never envisioned when many codes were first developed.
Prescriptive requirements have served us well.
They are built upon decades of research, operational experience and lessons learned from previous fire incidents.
They establish a uniform minimum standard that provides consistency for designers, regulators and building owners.
However, no code can anticipate every possible hazard.
This is where it becomes important to distinguish between a building that does not comply with the code and one where the prescribed solution may simply be unsuitable for the actual risk.
Take, for example, situations where travel distances exceed the allowable limits or compartment sizes are larger than permitted.
These are straightforward cases of non-compliance.
In such instances, a Performance-Based Approach (PBA) allows fire engineers to demonstrate, through scientific analysis and engineering principles, that an alternative design can still achieve an equivalent or even higher level of safety than the prescriptive requirement.
But not every challenge is about non-compliance.
Certain industrial processes present hazards that require a completely different way of thinking.
Consider facilities handling molten aluminium or other molten metals.
A prescriptive code may require a water-based sprinkler system based on the building’s size or occupancy classification.
Yet introducing water into a molten metal environment could potentially trigger violent steam explosions, making the prescribed solution itself inappropriate.
The question therefore is no longer, “How do we comply with the code?” Instead, it becomes, “What solution best addresses the actual hazard?”
This is where Fire Risk Assessment (FRA) and Fire Safety Design Philosophy (FSDP) become essential.
A Fire Risk Assessment is often misunderstood.
It should never be seen as a means of avoiding compliance or securing unnecessary exemptions.
Rather, it is a structured engineering process that identifies hazards, evaluates realistic fire scenarios, assesses potential consequences and recommends appropriate control measures based on actual risk.
Meanwhile, a Fire Safety Design Philosophy provides the overall strategy for protecting a building. It integrates prevention, detection, suppression, smoke management, compartmentation, evacuation planning, emergency response and firefighter intervention into one comprehensive framework.
Together, FRA and FSDP shift the discussion from simple compliance towards achieving genuine fire safety.
The concept of waivers is equally misunderstood.
Granting a waiver does not mean authorities are lowering safety standards.
Instead, it provides consultants with an opportunity to present sound technical justifications when prescriptive solutions are impractical or unsuitable.
The responsibility remains entirely with the consultant to prove that any alternative proposal will achieve the intended safety objectives and can withstand professional scrutiny.
This makes competency more important than ever.
The amendments to the Fire Services Act 1988 (Act 341), particularly Section 36C, recognise this by requiring that fire risk analysis reports be prepared only by registered Fire Safety Consultants or Fire Safety Consulting Firms.
Interestingly, the legislation does not specifically mention PBA, FSDP or waivers.
Instead, it adopts the broader term “fire risk analysis report”, recognising that fire engineering extends beyond individual methodologies.
It is a professional discipline that demands technical competence, accountability and sound engineering judgement.
For regulators and approving authorities, simply receiving an FRA report is not enough.
They must evaluate how the assessment was conducted, whether the assumptions are reasonable, the fire scenarios selected, the acceptance criteria adopted, and whether the proposed measures can realistically be implemented, maintained and enforced throughout the life of the building.
This is particularly important because fire risk analysis relies heavily on professional judgement.
Two consultants assessing the same building could arrive at different conclusions if they use different methodologies or risk acceptance criteria.
Without a proper competency framework and registration system, consistency becomes difficult to achieve.
Equally important is the timing of the assessment.
An FRA should be undertaken during the conceptual design stage rather than after construction has been completed.
When fire safety is considered early, potential risks can be addressed through integrated design solutions that are often more practical, cost-effective and efficient than attempting to rectify deficiencies at the end of a project.
Ultimately, fire safety extends far beyond installing alarms, sprinklers or fire-rated walls.
It begins with understanding how a building will actually function – its occupants, operational processes, materials, fire loads, emergency response capabilities and the consequences should a fire occur.
Only by understanding these risks can engineers design systems that genuinely protect people and property.
Each element of modern fire engineering has its own role.
Prescriptive codes establish minimum standards for common risks.
Fire Risk Assessments identify and evaluate actual risks.
Performance-Based Approaches demonstrate equivalent safety when departures from the code are necessary.
Fire Safety Design Philosophy brings all these elements together into a coherent protection strategy for complex developments and specialised hazards.
These are not competing approaches. They are complementary tools within a mature fire safety ecosystem.
Recognising this evolution, Malaysia has introduced standards such as MS 1183:2015 and MS 2780:2023, together with updated guidelines issued by the Fire and Rescue Department Malaysia.
These initiatives reflect the nation’s commitment to advancing Total Fire Engineering as buildings become taller, industries more specialised and risks increasingly diverse.
The construction industry will continue to evolve, and fire engineering must evolve with it.
Our responsibility is to adapt to changing technologies and emerging hazards while never compromising the principles that underpin public safety.
Whether through prescriptive compliance, Performance-Based Approaches, Fire Risk Assessments or Fire Safety Design Philosophy, the objective remains unchanged—to protect lives, safeguard property, conserve our living environment and ensure firefighters can perform their duties safely and effectively.
As Sarawak continues its journey towards becoming a modern and industrialised economy, we must equip our professionals with the right knowledge, competency and engineering tools to create a safer built environment for future generations.
Methods may evolve with changing risks, but the goal of fire safety will always remain the same: protecting people.
DISCLAIMER:The views expressed here are those of the writer and do not necessarily represent the views of Sarawak Tribune. The writer can be reached at khirudindrahman@sslborneo.com.my.
