Fire Risk Assessments and DSEAR Support for Alloy Wheel Refurbishment Workshops

Alloy wheel refurbishment businesses can involve more complex fire and hazardous substance risks than many people realise.

Unlike a standard vehicle workshop, an alloy wheel refurbishment or powder coating facility may include preparation areas, powder coating equipment, curing ovens, tyre storage, vehicle movements, compressors, extraction systems, chemical stripping processes, flammable products and electrical equipment — all operating within the same workplace. That combination creates a very specific fire safety and DSEAR risk profile.

For businesses carrying out alloy wheel refurbishment, powder coating, vehicle refinishing, detailing, repair or coating work, it is important that fire safety arrangements are suitable for the actual activities taking place on site.

A suitable fire risk assessment for alloy wheel refurbishment workshops needs to consider the specific risks created by powder coating, curing ovens, tyre storage, hazardous substances, extraction systems, vehicle movements and emergency isolation arrangements.

Orakul Safety Ltd supports automotive, workshop and industrial businesses with practical fire risk assessments, DSEAR assessments, COSHH reviews and health and safety support.

Alloy wheel refurbishment workshop with powder coating area, curing oven, fire extinguisher, COSHH cabinet and organised tyre storage

Why Alloy Wheel Refurbishment Workshops Need Specialist Fire Safety Review

Alloy wheel refurbishment premises are often busy industrial workshops with several different processes taking place at once.

Common activities may include:

• wheel removal and preparation

• tyre removal and refitting

• shot blasting or surface preparation

• powder coating

• paint or coating application

• chemical stripping

• use of curing ovens

• compressor use

• vehicle movements

• storage of tyres and wheels

• storage of chemicals, paints, powders or cleaning products

Each of these activities may introduce different fire or health and safety hazards.

The key issue is not just whether fire extinguishers and exits are present. The assessment needs to consider how a fire could start, how quickly it could develop, who may be affected and whether the business has suitable controls in place.

What Should a Fire Risk Assessment for Alloy Wheel Refurbishment Include?

Fire risk in this type of environment can come from a combination of ignition sources, combustible materials and oxygen.

Common ignition sources

Potential ignition sources may include:

• gas-fired or electrically heated curing ovens

• electrical installations and equipment

• portable electrical tools

• compressors and machinery

• battery charging equipment

• vehicle electrical systems

• static electricity from powder coating operations

• hot surfaces from machinery or ovens

• contractor hot works

• damaged cables or overloaded sockets

Where powder coating is undertaken, static electricity and dust control should also be properly considered.

Common fuel sources

Fuel sources in an alloy wheel refurbishment workshop may include:

• rubber tyres

• vehicle plastics and components

• powder coating materials

• paints, thinners, solvents and aerosols

• packaging and cardboard

• oily rags and contaminated wipes

• workshop dust and residues

• waste materials

• flammable liquids

• lithium-ion batteries within electric vehicles

• office materials and furniture

Tyres in particular can create a significant fire load. If ignited, rubber tyres can produce intense heat and large volumes of dense smoke.

Oxygen and ventilation

Workshops often rely on natural ventilation, extraction systems, spray booth ventilation, compressor systems and roller shutter doors. These are necessary for normal operations, but they can also influence how smoke, heat or fire may spread if a fire occurs.

This is why extraction, ventilation and shutdown arrangements should be included within the fire safety review.

Powder Coating and Combustible Dust

Powder coating is common in alloy wheel refurbishment. Although powder coatings are often lower risk than traditional solvent-based coating systems, fine powder particles can still create a combustible dust hazard if allowed to build up.

Important controls include:

• effective extraction systems

• routine cleaning of spray areas

• inspection and maintenance of filters

• safe removal of powder waste

• prevention of dust accumulation on ledges, floors and machinery

• correct grounding of powder coating equipment

• operator training and supervision

Combustible dust should not be ignored. Even small accumulations can increase risk if they are exposed to ignition sources.

A suitable fire risk assessment should therefore consider not just the powder coating activity itself, but also the surrounding housekeeping, maintenance and extraction arrangements.

Curing Ovens and Heat Sources

Industrial curing ovens are often one of the main ignition sources within a powder coating workshop.

They operate at elevated temperatures and may be located close to wheels, tyres, packaging, vehicles or other combustible materials if the workshop layout is not properly controlled.

Good fire safety practice includes:

• keeping combustible materials away from curing ovens

• maintaining clear space around ovens

• ensuring ovens are used only as intended

• checking temperature controls and safety shutdown features

• ensuring gas or electrical systems are maintained

• keeping dust and powder residues away from heated equipment

• recording oven inspections and servicing

Where practicable, tyre storage, packaging and flammable materials should be kept well away from ovens and other heat-producing equipment.

Tyre Storage and Fire Loading

Tyres are often present in alloy wheel refurbishment workshops because wheels may be removed from customer vehicles, stripped, repaired, coated and refitted.

Internal tyre storage should be carefully managed.

Key points include:

• keeping tyres away from ovens and ignition sources

• avoiding obstruction of fire exits and escape routes

• limiting tyre storage to operational quantities where possible

• preventing unstable stacking

• maintaining clear walkways

• ensuring waste tyres are removed regularly

• keeping tyres away from electrical equipment and hot surfaces

Tyre fires can be difficult to control and can produce heavy smoke. Even if the number of staff on site is low, poor tyre storage can significantly affect fire development and evacuation conditions.

COSHH and Flammable Liquids

Alloy wheel refurbishment and vehicle refinishing businesses may use a range of hazardous substances, including:

• paints

• coatings

• thinners

• solvents

• degreasers

• brake cleaner

• adhesives

• cleaning products

• chemical stripping products

• aerosols

• oils and lubricants

Some substances may be flammable. Others may be corrosive, harmful, irritant or hazardous during a fire.

COSHH assessments should identify:

• what substances are used

• where they are stored

• who may be exposed

• how they are used

• what PPE is required

• what ventilation is needed

• what spill controls are available

• how substances are disposed of

• what to do in an emergency

Flammable liquids should be stored in suitable containers or cabinets and kept away from heat sources, ignition sources and escape routes.

Why DSEAR Matters

DSEAR applies where dangerous substances are present and could create a risk from fire, explosion or similar energetic events.

In an alloy wheel refurbishment or powder coating environment, DSEAR may be relevant due to:

• flammable liquids

• vapours from paints, thinners or solvents

• aerosols

• combustible dust from powder coating

• gas supplies to curing ovens

• chemical storage areas

• spray or coating processes

• extraction systems

• ignition sources near hazardous substances

A DSEAR assessment should consider whether dangerous substances are present, where they are used or stored, how they could ignite and what controls are needed to reduce risk.

This may include reviewing:

• storage arrangements

• ventilation

• extraction

• ignition control

• equipment suitability

• emergency procedures

• zoning considerations

• staff training

• spill response

• maintenance arrangements

For many small workshops, the aim is not to overcomplicate the process. The aim is to identify the real risk areas and put practical controls in place.

Electric Vehicle Fire Considerations

Many automotive businesses now handle electric or hybrid vehicles.

Where electric vehicles are brought into a workshop, fire safety arrangements should consider:

• whether EVs are being charged on site

• where EVs are positioned

• whether escape routes remain clear

• whether vehicles are kept away from ovens and heat sources

• whether staff can recognise signs of battery damage

• what action staff should take if smoke, heat, vapour or unusual noises are identified

• how the Fire and Rescue Service would be informed of EV hazards

Lithium-ion battery fires can behave differently to conventional vehicle fires. Staff should not be expected to tackle a developing EV battery fire. The priority should be early warning, evacuation and contacting the emergency services.

Electric vehicles bring new risks — make sure your workshop is prepared.

Means of Escape and Workshop Layout

A fire risk assessment should review whether staff, visitors and contractors can escape safely.

For automotive workshops, this includes checking:

• number and location of exits

• travel distances

• final exits

• roller shutter arrangements

• whether exits open easily

• whether escape routes are obstructed

• whether vehicles block walkways

• whether tyres, tools or equipment reduce access

• whether emergency lighting is suitable

• whether fire exit signage is adequate

Marked pedestrian walkways can be useful in workshops where vehicles, tools and equipment are regularly moved around.

“Keep clear” areas around exits, extinguishers, electrical panels and emergency isolation points should also be maintained.

Fire Detection, Extinguishers and Emergency Lighting

Physical fire precautions need to be suitable for the risks present.

This may include:

• automatic fire detection and alarm systems

• manual call points

• audible alarm sounders

• suitable fire extinguishers

• emergency lighting

• fire exit signage

• fire action notices

• clearly marked assembly points

• emergency isolation points

• maintenance and testing records

Fire extinguishers should be suitable for the types of fire that may occur. For example, electrical equipment, flammable liquids, ordinary combustibles and vehicle-related risks may require different extinguisher types.

However, extinguishers should only be used on small fires by trained persons where it is safe to do so. They are not a substitute for evacuation.

Fire Safety Management

Fire safety is not just about the building. It also depends on how the business manages day-to-day arrangements.

Important management controls include:

• fire safety training

• fire drills

• fire alarm testing

• emergency lighting checks

• extinguisher servicing

• inspection of escape routes

• housekeeping checks

• maintenance of ovens and extraction systems

• contractor control

• hot work permits

• accident and incident reporting

• fire safety logbook records

A fire safety logbook is a simple but important way to show that fire precautions are being checked and maintained.

For small businesses, this does not need to be complicated. A clear inspection and testing schedule is usually enough to keep things controlled.

Emergency Planning and Isolation Points

Emergency arrangements should be clear and easy for staff to follow.

A suitable emergency plan should cover:

• how to raise the alarm

• who contacts the emergency services

• how staff and visitors evacuate

• where the assembly point is located

• how to account for people

• when staff must not re-enter the building

• what to do if a vehicle fire occurs

• what to do if chemical tanks or hazardous substances are involved

• where gas, electric and other isolation points are located

• what information should be available for firefighters

Emergency isolation points should be clearly identified and accessible. This may include electricity, gas, compressors, extraction systems, ovens or other process equipment.

Practical Support for Alloy Wheel Refurbishment and Automotive Businesses

Orakul Safety Ltd provides practical health and safety, fire safety and DSEAR support for automotive and industrial businesses.

Support can include:

• Fire Risk Assessments

• DSEAR Assessments

• COSHH Assessments

• Workplace Risk Assessments

• Garage and Workshop Safety Inspections

• Fire Emergency Plans

• Fire Safety Logbooks

• Emergency Isolation Plans

• Contractor Safety Reviews

• Hot Work Permit Systems

• Staff Briefings and Toolbox Talks

• Competent Person Support

The focus is on clear, usable advice that helps businesses manage risk without unnecessary paperwork.

Need a Fire Risk Assessment or DSEAR Assessment?

If your business carries out alloy wheel refurbishment, powder coating, vehicle refinishing, detailing, repair or workshop activities, it may be worth reviewing whether your current fire safety and DSEAR arrangements are suitable.

This is especially important if your premises include:

• powder coating equipment

• curing ovens

• spray areas

• flammable liquids

• chemical storage

• tyre storage

• extraction systems

• compressors

• hot work

• electric vehicles

• workshop machinery

Orakul Safety Ltd supports SMEs, garages, workshops and automotive businesses across the North East with practical fire risk assessment, DSEAR, COSHH and health and safety consultancy services.

Contact Orakul Safety Ltd to discuss fire safety or DSEAR support for your workshop.