Panoli Fire Review and Used Oil Processing Hazards

 HSE-RM SOLUTIONS | Technical review | 4 November 2026

 

The fire reported at Supreme Petrochem in Panoli raises a practical question for used-oil processing facilities: what sequence could bring a combustible release, air and an ignition source together, and which controls should interrupt that sequence?

Investigators need to establish the material involved, the operating stage, the first release or abnormal condition, the ignition source and the reasons the event escalated. The scenarios below are an investigation framework for this type of processing industry, not findings about Supreme Petrochem.

The incident and the industry

Sandesh reports a fire and blasts at Supreme Petrochem, Panoli GIDC, with three workers seriously burnt. It reports attendance by the Directorate of Industrial Safety and Health, Gujarat Pollution Control Board and police, while stating that an official cause had not been established. An agency attending the scene is not equivalent to an agency issuing a cause determination.

A historical GPCB list of actual users, dated 31 March 2024 and available through a third-party document archive, identifies Supreme Petrochem, GPCB ID 78567, Plot C1-B 1708, GIDC Panoli, against used oil. The June 2023 list records a capacity of 2,160 tonnes per year. This supports a used-oil processing or recycling connection. These records do not establish the present equipment, exact process, current authorisation status or equipment involved in the fire.

Comparable operations in Gujarat

The following examples identify the broader sector. Historical listing does not establish that a facility remains operational or uses the same process as Supreme Petrochem.

Facility	Gujarat location	Evidence of comparable activity
ABC Organics & Chemicals	Panoli, Bharuch	Used oil in the March 2024 GPCB list
Royal Petro Oil Refinery LLP	Gandhidham, Kutch	Used oil in the same list
Classic Oil Refinery	Choryasi, Surat	Used oil in the same list
Greenspace Enviro Services	Anand district	Its own website describes used/waste-oil re-refining using thin-film evaporation, producing base oil and light oil

Sources: GPCB List (https://legalupdate.qhsealert.com/file/202_Actual%20users%20for%20Used%20Oil%20%26%20Waste%20Oil.pdf)

 

These are examples of related operations, not allegations of unsafe conditions. A sector review should group facilities by their actual feedstock, heating method, distillation technology, inventories and safeguards.

 

How the process can create fire hazards

A representative re-refining route includes receipt and storage, solids removal, dehydration, removal of lighter fuel fractions, distillation, condensation, product collection and finishing. Vacuum or wiped-film equipment is used in some processes. Other recovery plants have different arrangements. (Source: https://chemsept.in/Views/Projects/UsedOilRefining.aspx)

 

Used oil is a variable feedstock. Water, particles and chemicals can enter it during service or collection. Its hazards cannot be assessed solely from the original lubricant specification.

 

Vapour generation is expected during distillation. An explanation such as “gas formed” must establish whether this was normal evaporation, unexpected volatile contamination, steam generation or decomposition. It must then explain the release, pressure conditions and ignition.

 

Fuel and oxidiser identification

Material or condition	Where to look	Why it matters
Used oil with lighter fuel or solvent contamination	Incoming tankers, drums, feed tanks and mixed batches	Volatility and ignition behaviour may differ from the expected feed
Light hydrocarbon fractions	Defueling equipment, condensers and receivers	A release can create an ignitable vapour mixture
Heated oil and oil mist	Pumps, flanges, hoses, seals and pressurised lines	Leakage can supply a pool fire or dispersed combustible spray
Heating-system fuel or thermal fluid	Burner fuel trains and hot-oil circuits, where installed	The heating utility can supply the first fuel release
Oily residues and contaminated materials	Still bottoms, sludge, insulation, filters and rags	They can contribute to fire growth; some deposits require assessment for self-heating
Air entering process equipment	Vacuum leaks, open connections and maintenance openings	Oxygen can enable combustion where combustible vapour is present

 

Oil-mist hazards need separate consideration from bulk-liquid flash point. Air is the oxidiser in these scenarios, not the fuel.

 

Hazard identification across the facility

This screening register must be developed against the site's equipment and operating limits. It is neither exhaustive nor a probability ranking.

Area and deviation	Credible mechanism to examine	Controls to assess
Feed receipt and mixing	Unexpected volatile or incompatible contamination changes the batch hazard	Traceable receipts, defined acceptance criteria, representative testing and segregation of uncertain material
Wet feed entering a hot process	Rapid vaporisation causes foaming, carryover, ejection or pressure rise	Water assessment, controlled dehydration and charging, appropriate operating limits and pressure protection
Excess heat or low inventory	Local overheating, exposed heated surfaces or degradation of susceptible material	Temperature and level protection; circulation monitoring where applicable; limits based on feed and residue properties
Vacuum failure or air ingress	Operating conditions change; an ignitable mixture may develop	Leak integrity, pressure monitoring, defined shutdown response and engineered inerting where justified
Condenser or cooling failure	Vapour is not adequately condensed and reaches unintended locations	Cooling performance monitoring, suitable trips and safe handling of uncondensed vapour
Restricted vapour or relief path	Pressure rises because generation exceeds discharge capacity	Verified relief basis, blockage inspection, controlled valve positions and safe discharge arrangements
Receiver overfill or open collection	Liquid or vapour escapes near people or ignition sources	Closed collection, suitable level protection, controlled transfer and ventilation
Pump, flange or hose leakage	Hot oil or light fractions contact an ignition source	Mechanical integrity, compatible components, leak detection and accessible emergency isolation
Heater or thermal-fluid fault	Fuel or hot fluid leaks; abnormal combustion or overheating occurs	Appropriate burner safeguards, fuel isolation and circulation/temperature protection
Maintenance during operation	Hot work, opening equipment or temporary wiring introduces ignition or releases material	Isolation, permits, atmosphere testing, contractor supervision and coordination of simultaneous work
Storage and drainage	A local release spreads through drains or exposes adjacent inventories	Compatible segregation, containment, drain control, access and emergency planning
Startup, shutdown or modification	Valve alignment, utilities or controls differ from normal operating assumptions	Specific procedures, change review, readiness checks and competent shift handover

 

The register combines process, equipment and activity scenarios. Heating or vacuum loss does not automatically cause decomposition; that depends on the material and conditions. A pressure event also does not automatically establish a combustion explosion.

 

Ignition sources and the precautions they require

 

Electrical equipment and portable devices

Assess motors, switches, junction boxes, instruments, temporary cables, lamps and portable equipment against the hazardous-area classification. Equipment suitability includes its protection method, gas group, temperature class and installation condition. “Flameproof motor installed” is not a complete assessment.

 

Flames and hot surfaces

Check fired heaters, burner fronts, exhausts, exposed hot pipework and vehicle routes against credible vapour releases. A leak reaching a heater can ignite without an electrical fault. Verify separation and the conditions under which heating must stop. (Use Guide: https://www.hse.gov.uk/comah/sragtech/techmeasareaclas.htm)

 

Static discharge

Review tanker unloading, pumping, filtration, filling and sampling. Verify bonding continuity and earthing of conductive equipment, suitable hoses and transfer methods. Earthing metal equipment alone does not resolve charging of an insulating liquid, hose or container. Avoid prescribing one flow limit for every material and arrangement. (Earthing Guide: https://www.hse.gov.uk/comah/sragtech/techmeasearthing.htm)

 

Welding and other maintenance

Consider alternatives to hot work. Where it is necessary, isolate relevant equipment, assess connected and adjacent vessels, and use suitable gas testing before and during work. The permit must describe actual precautions and supervision. An empty-looking oil vessel may still contain hazardous residue or vapour.

 

Mechanical heat and contaminated insulation

Inspect bearings, alignment and abnormal vibration. Investigate oil-soaked insulation and persistent leaks, particularly around hot equipment. Replacing insulation without finding the leak can leave the underlying hazard in place.

 

Controls that function when demanded

Establish the required response to excessive temperature, low inventory, loss of circulation, cooling failure and abnormal pressure. Verify the complete protective function, including sensors, logic, final isolation devices and essential utilities. Independence, bypass management and proof testing matter. A shutdown must reach a defined safe state; some processes require cooling to continue after heating stops.

 

Evidence authorities should examine

Life safety and scene stabilization take priority. Once access is safe, preserve evidence before dismantling, cleaning or restarting equipment. Record emergency actions that changed valve positions, power supplies or equipment condition.

 

Investigation question	Evidence to seek
Where did the event begin?	CCTV, first witness observations, fire-service records, original equipment locations and competent fire-origin examination
What material was being processed?	Batch identity, receipts, supplier history, retained feed and product samples, laboratory results and tank-transfer records
What was the operating stage?	Charging, heating, dehydration, distillation, discharge, cleaning or startup records
What changed before the event?	Time-aligned temperature, level, pressure/vacuum, cooling, flow, power and alarm histories
Where did material first escape?	Seal and flange condition, pipe failures, vessel openings, receivers, drains, vent outlets and vacuum-pump discharge
What supplied ignition?	Heater operation, electrical examination, hot-work records, static-control evidence, hot surfaces and vehicle activity
Did pressure failure precede fire?	Vessel deformation, fracture assessment, relief condition, pressure history and the sequence visible in recordings
Why did protection not stop escalation?	Setpoints, response times, calibration, complete trip tests, bypass records, isolation performance and shared utility failures
Why were workers exposed?	Work positions, access routes, warning, emergency shutdown access, supervision and evacuation arrangements
What changed recently?	Feed suppliers, throughput, temperatures, piping, equipment, staffing, maintenance and operating procedures

 

Testing should be planned by competent investigators, with samples and components documented and preserved. The table is a proposed evidence plan, not a statement that these records exist at the site.

 

A burnt cable alone cannot establish that an electrical fault started the fire. A damaged vessel alone cannot establish that an explosion initiated it. Both may be consequences of an earlier event. Competing explanations should be tested against the sequence and physical evidence.

 

HSE's investigation framework distinguishes immediate events from the underlying arrangements that allowed them. The review should therefore also examine competence, maintenance, communication and how identified defects were managed.

 

Suggested coordination between authorities

Within their respective powers, a coordinated review could allocate these workstreams:

• Fire service and forensic specialists: origin, first fuel, ignition sequence, spread and emergency-response observations.
• DISH: process design, operating limits, machinery integrity, protective functions, work practices and management arrangements.
• GPCB: actual feed and waste streams, approved activities and consent conditions, storage, residues, emissions and contaminated runoff.
• Police and forensic laboratory: witness evidence, preservation and examination of relevant components and samples.
• District and industrial-estate emergency teams: mutual aid, access, adjacent exposures, off-site consequences and communication.

 

These are suggested technical workstreams, not a substitute for each agency's statutory remit. Current approvals should be checked directly; an old list cannot establish whether a renewal was granted.

 

Actions for similar facilities

Operators can review credible hazards without assuming that the same failure occurred at Panoli. Start with feed acceptance, heating limits, condenser performance, vapour discharge routes, leak history, ignition controls and functional testing of shutdowns.

 

Where a critical safeguard cannot be demonstrated or a dangerous condition exists, have competent personnel assess whether the affected operation can continue safely. Set corrective actions and restart conditions around the actual hazard.

 

Fire protection, containment and emergency response remain necessary because preventive controls can fail. Their adequacy should reflect the inventories, release scenarios and neighbouring exposures.

 

An authority's sector advisory would be most useful if it identifies the failed mechanism, the equipment and operations to which it applies, the checks required, the acceptance criteria and responsibility for closure. Confirmed findings should be distinguished from unresolved hypotheses.

 

HSE-RM SOLUTIONS perspective

 

The useful outcome of an investigation is an explanation that leads to verifiable risk reduction.

 

For used-oil processing, that means connecting feed characteristics, process conditions, equipment integrity, operating activities and human decisions. It means establishing which safeguards were needed, whether they worked and how their effectiveness will be maintained.

 

HSE-RM SOLUTIONS can support this approach through process hazard identification, focused HAZOP studies, ignition-source reviews, equipment and protective-system assessments, and practical operating and emergency procedures.

 

Identify the hazardous sequence. Interrupt it. Verify the control.

HSE-RM SOLUTIONS
Your Partner In Safety...

BUILDING FIRE SAFETY: WHAT WE IGNORE TODAY MAY BECOME OUR ESCAPE BARRIER TOMORROW

 BUILDING FIRE SAFETY: WHAT WE IGNORE TODAY MAY BECOME OUR ESCAPE BARRIER TOMORROW

From the Thaltej Building Fire to Personal Responsibility — Why Every Occupant Must Learn Hazard Identification

 

HSE-RM SOLUTIONS | 4 November 2026

Another Building Fire. Another Life Lost. Are We Learning?

 

On 2 November 2026, a fire broke out at Magnet Corporate Park, a commercial building in Thaltej, Ahmedabad.

According to reports published by The Times of India, the fire was reported in an electrical cable duct on the second floor. Flames spread to furniture, generating thick black smoke that made evacuation difficult.

 

Around 40 people were reportedly inside the building. Fire services deployed 12 fire tenders and rescued several occupants.

 

Tragically, a 23-year-old employee lost his life after jumping from the building while attempting to escape. Another employee who jumped sustained injuries.

 

Initial reports indicated a suspected electrical short circuit. However, the precise cause remains under investigation.

This incident raises a question that goes beyond electrical faults, fire protection systems and emergency response.

 

How many hazards do we walk past every day without questioning them?

We enter buildings, park our vehicles, use lifts, walk through corridors and spend hours in offices.

But how often do we observe whether the building is actually safe?

We generally assume that somebody else is responsible.

The building management. The maintenance department. The safety officer. The fire department. The government authority.

But what about us?

 

You may not be responsible for maintaining the building. But you are responsible for raising concerns about conditions that threaten your safety.

 

That responsibility begins the moment you enter the premises.

 

1. Building Fires: Where Can Ignition Originate?

When a building catches fire, the explanation frequently becomes familiar:

Electrical short circuit.

But a short circuit is an electrical fault. It does not, by itself, explain the entire fire-development sequence.

Why did the fault occur?

Was there an overloaded circuit, damaged insulation, loose termination, defective protective device or inappropriate installation?

Was combustible material present nearby?

Why did the fire spread?

Why did smoke enter occupied areas and escape routes?

These questions are essential for understanding the real failure mechanisms.

 

Common Potential Ignition Sources in Commercial Buildings

Electrical installations

• Overloaded circuits and distribution boards.
• Loose electrical connections and overheating terminals.
• Damaged insulation and deteriorated cables.
• Improper cable joints and temporary wiring.
• Defective switches, sockets and protective devices.
• Extension boards and multiple adapters used beyond their ratings.
• Poorly maintained UPS, inverter and battery installations.
• Inadequately maintained electrical equipment and chargers.

 

Mechanical and utility equipment

• Overheated motors and ventilation equipment.
• Faulty air-conditioning compressors or electrical connections.
• Frictional heating from defective machinery.
• Generator exhausts and hot surfaces.
• Electrical or mechanical failures in utility rooms.

 

Building activities and operations

• Unauthorized smoking.
• Welding, cutting and grinding without adequate precautions.
• Cooking equipment and pantry appliances.
• Improper storage of combustible materials near heat sources.
• Unsafe charging or handling of batteries.
• Poorly controlled maintenance and renovation activities.

 

External ignition exposures

• Fireworks and burning debris entering balconies or openings.
• Vehicle or electrical equipment fires in parking areas.
• Waste fires near building openings.
• Fires spreading from adjacent shops, premises or structures.

 

Not every listed source presents the same risk in every building. A proper hazard assessment must evaluate actual installations, combustible materials, operating conditions and existing controls.

 

The objective is not simply to identify what can catch fire. It is to understand what can initiate a fire, how it can spread and what prevents occupants from escaping.

 

2. Your Fire Safety Inspection Begins in the Parking Area

Imagine entering your office building tomorrow.

Instead of simply parking your vehicle and proceeding to work, observe your surroundings.

You do not need to be a qualified fire safety professional to recognize many obvious unsafe conditions.

 

Parking and Basement Areas

Ask yourself:

• Are electrical panels surrounded by combustible materials?
• Are cables hanging loosely or visibly damaged?
• Are vehicles blocking fire exits, hydrants or access routes?
• Is waste accumulating in parking corners?
• Are electrical charging points installed and maintained appropriately?
• Are generator rooms and electrical installations being used for unauthorized storage?
• Are fire extinguishers accessible and visibly maintained?
• Are staircases and emergency exits clearly identified?

 

An electrical panel surrounded by cardboard boxes may appear harmless during normal operations.

But during an electrical fire, those materials can contribute to fire development.

 

If you notice something unsafe, report it. Do not simply walk past it.

 

Staircases and Lift Lobbies

As you move towards your office, observe:

• Are staircases being used for storage?
• Are fire doors wedged open or damaged?
• Are emergency exit doors locked or obstructed?
• Are exit signs visible?
• Is emergency lighting provided and maintained?
• Are electrical cables passing through unsealed openings?
• Are escape routes free from furniture, waste and temporary installations?
• Do you know where the alternative escape route is located, where provided?

A staircase is not merely a passage between floors.

 

During a fire, a protected staircase may be your most important route to safety.

 

Corridors and Common Areas

Look for:

• Excessive storage of furniture, cartons and packaging.
• Exposed wiring or damaged electrical fittings.
• Combustible decorative materials near potential ignition sources.
• Missing or damaged ceiling panels exposing service installations.
• Blocked access to extinguishers and hose reels.
• Fire alarm devices that appear damaged or obstructed.
• Uncontrolled renovation or maintenance activities.

 

Inside Your Office

Observe the equipment and activities around your workstation.

• Are multiple high-load appliances connected to one extension board?
• Are electrical sockets or plugs showing signs of overheating?
• Are cables crushed beneath furniture?
• Are chargers, batteries or electrical devices becoming abnormally hot?
• Are combustible materials stored near electrical installations?
• Are office appliances left energized unnecessarily?
• Are escape paths blocked by furniture?
• Do employees know what to do when the fire alarm sounds?

 

You do not need to diagnose the technical defect. Recognize the abnormal condition and ensure it is reported for competent assessment.

 

3. Why Do People Jump From Burning Buildings?

This is one of the most disturbing aspects of building fire incidents.

People sometimes jump from upper floors despite knowing that the fall could cause serious injury or death.

Why?

Because in that moment, they may believe they have no other way to survive.

Possible circumstances include:

 

Smoke blocking escape routes

Smoke can rapidly reduce visibility, irritate the respiratory system and make evacuation difficult or impossible.

 

Loss of a usable escape route

If a staircase becomes smoke-filled, obstructed or otherwise inaccessible, occupants may find themselves trapped.

 

Lack of emergency awareness

People may not know where alternative exits, protected staircases or safer waiting locations are situated.

 

Delayed warning

When occupants recognize a fire only after smoke has spread, the time available for safe evacuation may be reduced.

 

Panic and uncertainty

When a person cannot breathe properly, cannot see the exit and does not know when rescue will arrive, desperate decisions can follow.

 

Inadequate compartmentation or smoke control

Where fire and smoke separation is ineffective, conditions can deteriorate beyond the immediate fire area.

These are general mechanisms that should be investigated in comparable incidents. They are not established findings about every system at the Thaltej building.

 

Can Such Desperate Escape Attempts Be Prevented?

In many circumstances, the risk can be reduced through:

• Early and effective fire detection and warning.
• Adequate, protected and unobstructed escape routes.
• Effective fire and smoke compartmentation.
• Appropriate smoke-control arrangements.
• Occupant awareness and evacuation training.
• Emergency communication and coordinated rescue arrangements.
• Regular inspection, testing and maintenance of life-safety systems.

 

What Should You Do If Fire Blocks Your Escape?

Do not use lifts during a fire unless they are specifically designated and operated for evacuation under the applicable emergency plan.

Use a safe, designated escape route if available.

If the route is blocked by smoke or fire, do not force your way through it.

Move to a safer enclosed room away from the fire if possible, close the door, contact emergency services on 112 or the fire service on 101, communicate your exact location and signal rescuers from a window if safe.

Follow emergency-service instructions.

 

Do not jump from a building as an ordinary escape method. Jumping from upper floors can be fatal. Proper evacuation and rescue arrangements must aim to prevent occupants from ever facing that decision.

The important question is not why a frightened individual made a desperate choice.

 

The important question is what conditions left that individual believing there was no safer option.

 

4. Who Is Responsible — Fire Department, Authorities or Building Management?

Whenever a major building fire occurs, public discussion often begins with blame.

Why did the fire department not arrive earlier?

Why did the authorities approve the building?

Why did management not maintain the systems?

These are legitimate questions, and the responsible organizations must be held accountable for their respective legal and operational duties.

But there is another question we rarely ask.

 

What unsafe conditions have we personally observed and accepted for months or years?

Have we noticed a blocked staircase but continued using the building?

Have we seen exposed wiring but assumed maintenance would eventually repair it?

Have we watched fire doors being kept open for convenience?

Have we noticed emergency exits being used for storage?

Have we ignored repeated false alarms without asking whether the system was functioning correctly?

Not every hazard is visible to an ordinary occupant, and occupants cannot be expected to replace competent inspections or management responsibilities.

However, when an unsafe condition is visible, remaining silent allows that concern to go unaddressed.

 

Raising a safety concern is not creating an argument. It is participating in prevention.

You do not have to protest, accuse or confront anyone.

Ask a simple question:

Is this condition safe?

Has this been inspected?

Who should I report this to?

What should we do if a fire occurs here?

And if a serious concern is not resolved, escalate it through the appropriate management, facility or statutory reporting channel.

If there is immediate danger, move to safety and alert others and emergency services.

 

5. Safety Is Not Someone Else's Job

One of the most damaging attitudes towards safety is:

This is not my work.

We use buildings every day but rarely consider the systems that protect us.

We assume that because a building is occupied, it must be safe.

Because a fire extinguisher is installed, it must work.

Because an exit sign is displayed, the exit must be accessible.

Because a building has received approvals, every installation must remain in acceptable condition.

But buildings change.

New electrical equipment is installed.

Partitions are modified.

Occupancy increases.

Furniture is rearranged.

Additional cables are routed through service shafts.

Maintenance activities introduce new hazards.

Storage gradually occupies spaces originally intended to remain clear.

 

Safety is not a one-time approval. It is a continuously maintained condition.

Every occupant has a role in recognizing and reporting changes that could affect their safety.

Management retains responsibility for providing and maintaining safe premises, but occupants can make a meaningful contribution by identifying and reporting unsafe conditions.

 

6. From Observation to Action: A Simple Building Safety System

We do not necessarily need expensive technology to begin improving everyday hazard identification.

 

We need a practical system that people understand and use.

Step 1: Observe

Identify visible unsafe conditions during normal movement through the building.

Step 2: Report

Communicate the location, nature of the hazard and supporting details to the designated responsible person.

Step 3: Assess

Have a competent person evaluate the potential consequences and required controls.

Step 4: Act

Assign responsibility, implement appropriate corrective measures and prioritize serious hazards.

Step 5: Verify

Confirm that the action has actually eliminated or adequately controlled the hazard.

Step 6: Review

Check whether the same problem is recurring and whether broader system improvements are needed.

A photograph, location, brief description and reporting date can be sufficient to initiate a simple hazard report.

But the value is not in the report itself.

The value lies in what happens after the report is submitted.

An observation without action is merely recorded information.

An observation followed by appropriate corrective action becomes prevention.

 

7. What Should Every Building Occupant Know?

Before spending another working day in a building, ask yourself:

1. Where are the designated emergency exits?
2. Which protected staircase should I use?
3. Is there an alternative escape route?
4. How will I recognize the fire alarm?
5. What should I do if smoke blocks my normal route?
6. Where is the designated assembly point?
7. Who is responsible for emergency coordination?
8. How do I report an unsafe condition?
9. Have I participated in an evacuation drill?
10. What should I do if I become trapped?

If you cannot answer these questions, request an emergency orientation or awareness session.

You should not have to discover your escape arrangements during an actual fire.

 

8. HSE-RM SOLUTIONS: Building Safety Management Programme

At HSE-RM SOLUTIONS, we believe building fire safety should extend beyond inspections, certificates, equipment installation and compliance reports.

The real objective is to develop a practical system that building management and occupants can understand, operate and maintain.

 

Our proposed Building Safety Management Programme is customized to the actual conditions of each premises.

 

Our Approach

Building Assessment

We assess relevant building fire hazards, electrical installations, fire loads, escape arrangements, fire protection provisions and emergency preparedness.

 

Hazard Identification and Risk Evaluation

We identify conditions requiring attention, evaluate their potential consequences and prioritize corrective measures.

 

Occupant Awareness Session

We conduct practical awareness sessions to help occupants recognize unsafe conditions, understand emergency arrangements and report concerns effectively.

 

Customized Safety Management System

We recommend simple internal inspection, reporting, monitoring and corrective-action processes that can be managed by the building's existing team.

 

Actionable Improvement Plan

The building management receives prioritized recommendations covering immediate actions, maintenance improvements, training requirements and longer-term system enhancements.

Our focus is not simply on recommending more equipment.

It is on identifying what must be inspected, what must be controlled, who should be responsible and how effectiveness should be verified.

 

Assess the building. Educate the occupants. Develop a practical system. Act on the findings.

That is how building safety can become an active responsibility rather than a passive expectation.

 

9. The Final Question: Will You Raise Your Voice Tomorrow?

The next time you enter your office building, observe the parking area.

Look at the electrical installations.

Check the staircase.

Notice the corridors.

Identify the emergency exits.

Think about what could happen if smoke filled the area.

And if something appears unsafe, report it.

Do not assume that someone else must already know.

Do not assume that because nothing has happened so far, nothing will happen tomorrow.

Do not wait for a fire to discover that the escape route was obstructed.

 

You may not be able to prevent every building fire. But you can help identify and report conditions that make fires more likely or their consequences more severe.

 

The Thaltej incident is a painful reminder of how dangerous a building fire can become when smoke compromises escape.

 

Let us respect those affected by learning from the questions this incident raises.

Safety is not about blaming someone after an accident. It is about taking responsibility before an accident.

Your safety is your responsibility too.

 

Observe. Question. Report. Act.

 

HSE-RM SOLUTIONS
Your Partner In Safety...