How FLIR thermal imaging helps prevent downtime in data centres

by Featured NewsFire DetectionIndustrialThermal Imaging

Thermal imaging aids data centre operations

FLIR has reported on the role of thermal imaging in maintaining data centres.

With the expansion of cloud computing, artificial intelligence, and big data, data centres are increasing in scale and complexity.

Preventing downtime is essential, as failures can result in financial losses and reputational damage.

Thermal imaging technology helps identify potential problems in power distribution, cooling systems, and electrical components before they lead to failures.

Maintenance teams use FLIR thermal imaging cameras to detect overheating, overloaded circuits, and mechanical faults.

The technology allows inspections to be conducted without shutting down equipment, reducing operational disruption.

Applications in electrical and cooling systems

Thermal imaging is widely used to inspect electrical infrastructure in data centres.

FLIR states that overheating in electrical systems can indicate loose connections, load imbalances, or failing components.

Detecting these issues early can prevent unplanned outages. Cooling systems also benefit from thermal imaging inspections.

Many data centres use a hot aisle/cold aisle cooling layout. FLIR thermal cameras assist in monitoring airflow efficiency, identifying misaligned ductwork, and detecting cooling failures that could lead to overheating.

Enhancing security and fire prevention

In addition to maintenance applications, thermal imaging is used for security and fire prevention.

FLIR reports that fixed thermal cameras can detect temperature anomalies before they lead to equipment failure or fire.

Early detection reduces the risk of asset damage and operational disruptions. Thermal imaging is also used for perimeter security.

Unlike standard video cameras, thermal cameras operate in low-visibility conditions such as fog, smoke, or darkness.

Integrated with analytics, these cameras can distinguish between humans and vehicles, reducing false alarms.

Thermal imaging supports renewable energy integration

Data centres are increasing their use of renewable energy, including solar and wind power.

According to FLIR, thermal imaging helps inspect solar panels for defects and assess wind turbine components for wear.

This technology supports efficiency and maintenance efforts in renewable energy integration.

How FLIR thermal imaging helps prevent downtime in data centres: Summary

FLIR has reported on the role of thermal imaging in data centre maintenance.

The technology is used to inspect electrical systems, cooling infrastructure, fire prevention systems, and security operations.

Thermal cameras help detect overheating, faulty circuits, and equipment failures before they cause downtime.

FLIR states that thermal imaging can be used for predictive maintenance without interrupting data centre operations.

The technology also supports security applications by monitoring perimeters and detecting threats in low-visibility conditions.

Additionally, thermal imaging is used to inspect solar panels and wind turbines as data centres integrate renewable energy sources.

10 Most Common Combustible Materials

by Building ManagementConstructionConstructionHealth and SafetyIndustrialWarehouseWaste & Recycling

Combustible materials are an essential part of daily life, present in homes, workplaces, and industrial settings. 

From everyday items like paper and cloth to industrial fuels like diesel and kerosene, combustible materials are both useful and hazardous.

Understanding the nature of these materials is crucial for maintaining safety and preventing accidents. 

Knowing how and why they ignite, the risks they pose, and the precautions needed to handle them can help reduce the chances of dangerous situations. 

In this article, we’ll delve into the most common combustible materials and discuss their characteristics, risks, and practical safety measures. 

By the end, you’ll have a clear understanding of how to use and store these materials responsibly, ensuring a safer environment for everyone.

What are Combustible Materials?

what are combustible materials

Combustible materials are substances that can catch fire and burn when exposed to sufficient heat, oxygen, or an ignition source. 

Combustible materials are often used in everyday life, from cooking and heating to construction and manufacturing. 

However, their potential to burn poses safety risks if not handled correctly. 

Proper storage, ventilation, and adherence to safety guidelines are essential to prevent accidents and ensure that combustible materials are used responsibly in homes and workplaces.

How Dangerous are Combustible Materials?

Combustible materials can pose significant risks if not handled or stored properly. 

These substances can catch fire when exposed to heat, sparks, or open flames, leading to potentially devastating consequences. 

Fires fueled by combustibles can spread rapidly, causing property damage, injuries, or loss of life. 

Additionally, improper storage or disposal of these materials increases the likelihood of accidental ignition. 

Awareness of their dangers, along with proper safety measures is crucial to minimising risks and ensuring safety in homes and workplaces.

10 Most Common Combustible Materials

Here are the most common combustible materials, their uses, and associated risks:

Paper

combustible materials paper

Paper is a highly combustible material, primarily due to its thin structure and cellulose content. 

The cellulose fibers in paper make it easy to ignite, and once set on fire, it burns rapidly. 

Paper is one of the most common fire starters found in homes and offices. 

It’s often accumulated as waste in the form of newspapers, magazines, cardboard, and office documents, making it a significant fire risk when exposed to heat sources. 

Paper can easily catch fire if it comes into contact with flames from candles, faulty wiring, or overheated electronics. 

In offices or homes, paper products are typically stacked or stored in areas that could become fire hazards if not carefully managed. 

Straw

Straw, often used in farming as bedding for animals or as feed, is another highly combustible material. 

This dry, fibrous material ignites quickly when exposed to a heat source, which makes it a significant fire hazard. 

Straw is especially dangerous in barns or storage areas, as the dense bundles can create the perfect environment for rapid fire spread. 

A fire starting in a haystack or straw-filled barn can quickly escalate and spread through entire buildings, leading to catastrophic damage. 

In fact, straw is a common cause of barn fires, and these fires often occur when straw is improperly stored or when there is a buildup of heat within large quantities of straw. 

Wood

Wood is one of the most widely used combustible materials, both for construction and as a source of fuel for heating and cooking. 

It burns at high temperatures, and dry wood is especially prone to ignition. 

Wood is commonly used for furniture, flooring, and building materials, but it is also a major fuel source in fireplaces, wood stoves, and campfires. 

Storing wood in dry, well-ventilated areas is critical to prevent unintentional fires. 

For homes that use wood-burning stoves, it is essential to maintain a safe distance between firewood and any other flammable materials, as well as ensuring that the chimney is regularly cleaned to prevent buildup of highly combustible creosote.

Cloth

Cloth, particularly natural fibers like cotton and wool, is another common combustible material found in homes and businesses. 

While cloth generally burns slower than paper, it still poses a fire hazard once it catches fire. 

Cloth is a key component in items like clothing, curtains, bed linens, and upholstery. 

In a fire, clothing can act as fuel, spreading flames across a room rapidly. 

To mitigate the risks associated with cloth, it is essential to keep fabric items away from open flames such as candles, space heaters, or cooking appliances. 

Coal / Charcoal

Coal and charcoal are fuels commonly used in barbecues, fireplaces, and industrial applications due to their ability to burn steadily and produce significant heat. 

However, both coal and charcoal are highly combustible materials. 

They require proper handling and storage to avoid spontaneous combustion, which can occur when stored improperly. 

When coal or charcoal is exposed to heat, it can begin to smolder and eventually catch fire. 

To prevent this, coal or charcoal should always be stored in cool, dry areas away from flammable liquids or materials.

Cooking Oil

combustible materials cooking oil

Cooking oil is commonly used in cooking and is a combustible liquid. 

While it may not ignite as easily as some flammable liquids like petrol, oil can still catch fire if it reaches its flash point or is exposed to high heat. 

When cooking oil is overheated, it can ignite and burn rapidly, making it difficult to extinguish with water. 

It is important to monitor oil temperatures and avoid overfilling cooking appliances. 

If cooking oil begins to smoke heavily, it should be removed from heat immediately.

Grease

Grease, a byproduct of cooking oil, is another highly combustible material, often found in kitchens and machinery. 

Grease fires are especially hazardous because water can exacerbate the flames and spread the fire. 

In kitchens, grease can accumulate in stove hoods, exhaust fans, and cooking appliances, creating fire risks if not cleaned regularly. 

In industrial settings, grease is often used in machinery and can ignite if exposed to heat or sparks. 

Lubricants

Lubricants like motor oil and industrial greases are essential for reducing friction in machinery, but they are also combustible. 

Improper storage or exposure to heat can cause lubricants to catch fire, particularly in industrial or mechanical environments where sparks or high temperatures are common. 

To safely store lubricants, they should be kept in sealed containers and away from heat or open flames. 

It’s also important to keep storage areas well-ventilated and to follow manufacturer recommendations for handling and disposal to reduce fire risks.

Kerosene

Kerosene, used as a liquid fuel for heating, lighting, and in aviation, is a highly combustible material. 

While it is less volatile than petrol, it can still cause significant fire hazards. 

Kerosene should always be stored in approved containers designed for flammable liquids. 

In homes, kerosene lamps and heaters must be handled with care, and the fuel should never be stored near heat sources. 

Diesel

Diesel is another commonly used combustible liquid, found in transportation and heavy machinery. 

While it is less flammable than petrol, it can still cause significant fires if not handled properly. 

Diesel fires can escalate quickly if fuel spills or leaks occur near heat sources. 

Diesel should always be stored in proper containers and kept away from sparks or open flames. 

How Can Combustible Materials Be Used or Stored Safely?

storing combustible materials safely

Proper handling and storage of combustible materials are essential to prevent fires and ensure safety. 

Here are some practical tips for their safe use and storage:

Use Approved Containers

Store combustible liquids in containers specifically designed for flammable substances. 

These containers should be leak-proof, clearly labeled, and kept sealed when not in use.

Maintain Proper Ventilation

Store materials like coal, charcoal, and lubricants in well-ventilated areas to prevent heat buildup. 

This reduces the risk of spontaneous combustion.

Keep Away from Heat Sources

Ensure combustible items are stored far from open flames, heaters, or electrical appliances. 

Even indirect heat can cause materials like straw or cloth to ignite.

Avoid Overloading Storage Areas

Avoid piling materials too high, as this can trap heat and increase fire risks.

Regular Inspections

Check for leaks, damage, or signs of overheating in storage areas. 

Repair or replace damaged containers promptly.

Have Fire Extinguishers Nearby

Place appropriate fire extinguishers, and other fire suppression equipment near storage areas.

What is the Difference Between Flammable and Combustible Materials?

The primary difference between flammable and combustible materials lies in their ignition temperature. 

This determines how easily they catch fire under certain conditions.

Flammable Materials

Flammable materials ignite easily at lower temperatures, typically below 37.8°C (100°F). 

These materials can catch fire with minimal heat or a small spark, making them more hazardous. 

Due to their high volatility, flammable materials require stringent handling and storage conditions, such as being stored in sealed containers away from heat sources.

Combustible Materials

Combustible materials require higher temperatures, typically above 37.8°C, to ignite. 

Although they are less volatile than flammable materials, they still pose significant fire risks if improperly handled. 

While not as easily ignited, combustible materials can fuel large fires once they start.

Both flammable and combustible materials can be hazardous, but understanding their differences helps ensure proper storage, handling, and fire safety precautions.

What are Non-Combustible Materials?

non combustible materials

Non-combustible materials are substances that do not ignite, burn, or support combustion under normal conditions. 

These materials are often used in construction, manufacturing, and safety applications due to their fire-resistant properties.

Characteristics of Non-Combustible Materials

Non-combustible materials can withstand high temperatures without catching fire or emitting toxic gases. 

They do not contribute to the spread of fire and are considered safe for use in environments where fire risk is a concern.

Examples of Non-Combustible Materials

Metal

Steel and aluminum are widely used in construction due to their durability and fire resistance.

Concrete

A common choice for buildings, it resists heat and provides structural integrity during fires.

Glass

Certain types, like tempered or fire-rated glass, can endure high heat without breaking.

Brick and Stone

These materials are naturally resistant to fire and commonly used in construction.

Conclusion

You should now have more of an understanding of the most common combustible materials.

Understanding combustible materials and their risks is essential for safety. 

By following safety protocols and training, using appropriate fire extinguishers, and ensuring proper storage, the dangers of combustion can be minimised. 

Awareness and preparedness are key to preventing fires and protecting lives and property.

LearnPro Group acquires Redkite Systems to strengthen software solutions portfolio

by Featured NewsIndustrial

LearnPro Group broadens service offerings with Redkite Systems acquisition

LearnPro Group, backed by Apiary Capital, has acquired Redkite Systems, adding its Smart Training, Competency, and Asset Management systems to the LearnPro portfolio.

Redkite Systems serves civilian and military fire services and major global airports such as King Khalid International Airport and London Heathrow.

This acquisition aligns with LearnPro Group’s strategic goal of expanding its presence in the aviation and industrial sectors.

Redkite Systems strengthens LearnPro Group’s global presence

According to LearnPro Group, this acquisition supports its broader objective of serving global emergency services and critical infrastructure sectors.

CEO Costi Karayannis stated: “The addition of Redkite to LearnPro Group opens up opportunities to extend further into the global aviation and industrial sectors.”

Karayannis highlighted Redkite’s recent success with Riyadh Airports Company, noting: “We will invest further in the product to enhance its value.”

Future plans for Redkite Systems under LearnPro Group

David Arber, CEO of Redkite Systems, will remain with the company during 2025 to support the transition.

Arber said: “Joining LearnPro Group is an exciting opportunity and the obvious next step for the Redkite business. I am confident that LearnPro will provide the resources and capability to ensure a great future for Redkite customers and products.”

LearnPro Group plans to integrate Redkite’s systems to deliver enhanced value to its customers in aviation and industrial markets.

Strategic growth through acquisitions

The Redkite acquisition follows LearnPro Group’s purchase of Infographics UK, furthering its position in the global emergency services software market.

LearnPro Group aims to leverage its expanded portfolio to drive innovation and efficiency across its customer base.

Karayannis emphasised the importance of building on trusted products to serve relevant sectors, stating: “The power of the combined group can drive even more value for our joint customers.”

LearnPro Group acquisition of Redkite Systems expands market reach: Summary

LearnPro Group, supported by Apiary Capital, has acquired Redkite Systems to enhance its software offerings in training, competency, and asset management.

Redkite’s customer base, including major airports and fire services, aligns with LearnPro’s plans to expand into aviation and industrial sectors.

LearnPro’s CEO, Costi Karayannis, expressed confidence in the acquisition’s potential to create new opportunities globally.

Redkite CEO David Arber will remain during the transition to support integration. This acquisition follows LearnPro’s recent purchase of Infographics UK, demonstrating its commitment to growth in global emergency services markets.

Essential Personal Protective Equipment List

by AviationBreathing ApparatusConstructionHealthcareHospitalityIndustrialPorts & MaritimePPERetailTransportUtilitiesWarehouse

Personal Protective Equipment (PPE) plays a crucial role in keeping people safe in various work environments. 

Whether you’re working in construction, healthcare, or manufacturing, the right equipment helps reduce the risk of injury or exposure to hazards. 

This article will walk you through everything you need to know about PPE, including what it is, who needs it, and an essential personal protective equipment list.

What is Personal Protective Equipment?

what is personal protective equipment

Personal Protective Equipment refers to specialised gear and clothing designed to protect individuals from workplace hazards. 

PPE is used to minimise exposure to risks that can cause injury or illness. 

This equipment includes items such as helmets, gloves, goggles, masks, earplugs, and protective clothing, depending on the specific hazards present in a given environment.

PPE is commonly used in industries like construction, manufacturing, healthcare, and laboratories, where workers may be exposed to physical, chemical, or biological dangers. 

The type of PPE required varies based on the job, such as hard hats for construction workers or gloves and masks for healthcare professionals.

The main goal of PPE is to provide a barrier between the individual and potential hazards, ensuring a safer working environment. 

It’s a critical element of workplace safety and is often legally required in high-risk industries.

Who Needs Personal Protective Equipment?

who needs- personal protective equipment

Personal Protective Equipment is essential for anyone working in environments with potential hazards. 

Various industries require different types of PPE to ensure worker safety. 

Here are some key groups that need PPE:

Construction Workers

Construction sites are full of risks, such as falling objects, loud noises, and hazardous materials. 

Workers in this field need hard hats, safety glasses, gloves, and steel-toed boots to protect against injuries.

Healthcare Professionals

Doctors, nurses, and other healthcare workers are exposed to biological hazards, chemicals, and infectious diseases. 

They require gloves, masks, gowns, and face shields to safeguard themselves and their patients.

Manufacturing Workers

In manufacturing environments, workers often operate heavy machinery and handle hazardous substances. 

They need PPE like safety goggles, gloves, and hearing protection to minimise risks associated with machinery and chemicals.

Laboratory Personnel

Chemists and laboratory technicians frequently work with potentially dangerous chemicals and biological materials. 

PPE such as lab coats, safety goggles, and respirators is necessary to protect against spills and inhalation of harmful substances.

Agricultural Workers

Farmworkers face unique hazards, including exposure to pesticides, machinery, and the elements. 

They need gloves, masks, and protective clothing to reduce the risk of exposure to chemicals and injuries.

Emergency Responders

Firefighters, paramedics, and police officers encounter various hazards, including toxic environments and physical dangers. 

They rely on specialised PPE to protect themselves while performing their duties.

Essential Personal Protective Equipment List

This is the essential Personal Protective Equipment List used in various industries. 

Below are the main categories of personal protective equipment:

Head Protection

head personal protective equipment

Head protection is crucial for workers in environments where there is a risk of head injuries from falling objects or bumps.

Hard Hats

Hard hats are designed to protect the head from impacts and penetration. 

They are made of durable materials like high-density polyethylene (HDPE) and come with adjustable straps for a secure fit. 

Hard hats also often have a built-in sweatband for comfort. 

Bump Caps

Bump caps provide limited protection against minor bumps and scrapes. 

They are softer than hard hats and are often used in low-risk environments, such as warehouses or indoor facilities.

Eye Protection

eye personal protective equipment

Eye protection is necessary in jobs where workers are exposed to flying debris, chemicals, or harmful light.

Safety Goggles

Safety goggles protect the eyes from various hazards, including dust, splashes, and chemical fumes. 

They provide a snug fit around the eyes and often have anti-fog and scratch-resistant coatings.

Face Shields

Face shields offer full-face protection and are commonly used in welding, grinding, and chemical handling. 

They are usually worn over safety goggles for additional eye protection.

Ear Protection

ear personal protective equipment

Exposure to loud noises can lead to hearing loss. Ear protection helps minimise this risk.

Earplugs

Earplugs are small devices inserted into the ear canal to block out sound. 

They are effective in reducing noise levels and are often disposable for hygiene.

Earmuffs

Earmuffs cover the entire ear and provide higher noise reduction than earplugs. 

They are ideal for environments with extreme noise levels, such as factories and construction sites.

Respiratory Protective Equipment (RPE)

respiratory personal protective equipment

Respiratory protective equipment is vital in environments where workers may inhale harmful substances, including dust, gases, and vapours.

Dust Masks

Dust masks provide basic protection against dust and non-toxic particles. 

They are lightweight and easy to use, making them suitable for short-term tasks.

Respirators

Respirators offer more robust protection and can filter out specific airborne contaminants. 

They come in two main types: half-mask and full-face. 

Half-mask respirators cover the nose and mouth, while full-face respirators protect the eyes as well. 

Respirators must be fitted correctly to ensure they provide adequate protection.

Hand Protection

hand personal protective equipment

Hand protection is essential in environments where workers may encounter cuts, abrasions, or exposure to chemicals.

Work Gloves

These gloves are designed to protect against cuts, abrasions, and punctures. 

They come in various materials, such as leather, cotton, and synthetic options. 

Different gloves are available for different tasks, so it’s essential to choose the right type for the job.

Chemical-Resistant Gloves

These gloves protect against hazardous substances, including chemicals and solvents. 

They are made from materials like nitrile, neoprene, or latex, depending on the specific chemical hazards present.

Body Protection

body personal protective equipment

Body protection involves clothing designed to shield workers from physical and chemical hazards.

Coveralls

Coveralls provide full-body protection from dirt, abrasions, and chemicals. 

They are often used in manufacturing, automotive, and agricultural settings. 

Some coveralls are flame-resistant or chemical-resistant for added safety.

Aprons

Aprons protect the front of the body from spills and splashes. 

They are commonly used in kitchens, laboratories, and industries dealing with chemicals or hazardous materials.

Foot Protection

foot personal protective equipment

Foot protection is crucial in environments where workers are at risk of foot injuries from heavy objects or slippery surfaces.

Steel-Toed Boots

Steel-toed boots protect the toes from falling objects and punctures. 

They also provide support and insulation for the feet. It’s important to ensure that these boots fit correctly for maximum comfort and protection.

Slip-Resistant Shoes

These shoes have specialised soles that provide grip on slippery surfaces, reducing the risk of slips and falls. 

They are essential for workers in kitchens, restaurants, and outdoor settings.

Is Personal Protective Equipment A Legal Requirement?

is personal protective equipment legal requirement

Yes, in most countries, providing and using PPE is a legal requirement for businesses. 

Employers must assess the risks in the workplace and provide appropriate PPE to their employees. 

For example, the Occupational Safety and Health Administration (OSHA) in the United States mandates that employers ensure workers use PPE when necessary. 

Failure to comply with these regulations can result in fines and legal consequences.

PPE regulations differ between industries, so it’s essential to follow the specific guidelines relevant to your field. 

In most cases, both employers and employees share responsibility for ensuring PPE is used correctly.

How Often Should Personal Protective Equipment be Replaced?

how often personal protective equipment replaced

The frequency of replacing Personal Protective Equipment PPE depends on several factors, including the type of equipment, its usage, and the work environment.

Manufacturer Guidelines

Always refer to the manufacturer’s recommendations for replacement intervals. 

Many PPE items come with guidelines that specify how often they should be replaced.

Wear and Tear

Inspect PPE regularly for signs of wear and damage. 

Equipment that shows signs of deterioration, such as cracks, tears, or faded materials, should be replaced immediately, even if it hasn’t reached the recommended time frame.

Frequency of Use

PPE that is used frequently or in harsh conditions will wear out faster. 

For example, gloves and respirators may need replacement after a specific number of uses, while hard hats may last several years with proper care.

Regulatory Standards

Some industries have strict regulations regarding PPE replacement. 

Be aware of any legal requirements specific to your workplace.

Changes in Workplace Conditions

If the work environment changes, such as increased exposure to hazardous materials, consider replacing PPE to ensure adequate protection.

Does Personal Protective Equipment Require Training?

personal protective equipment require training

Yes, Personal Protective Equipment (PPE) requires training to ensure that employees understand how to use it correctly and safely. 

Proper training is crucial for maximising the effectiveness of PPE and minimising workplace injuries. 

Here are key aspects of PPE training:

Understanding PPE Types

Employees need to know the different types of PPE relevant to their job. 

This includes hard hats, gloves, goggles, and respirators. 

Training helps workers identify which PPE is necessary for specific tasks.

Correct Usage

Training should cover how to wear and adjust PPE properly. 

This includes ensuring a snug fit and understanding how to operate any equipment, such as respirators, correctly.

Maintenance and Inspection

Employees must be trained on how to inspect PPE for signs of wear or damage. 

Knowing when to replace or repair equipment is essential for ongoing safety.

Legal Requirements

Many regulatory bodies require employers to provide PPE training. 

Understanding these regulations helps ensure compliance and promotes a culture of safety in the workplace.

Emergency Procedures

Training should also cover what to do in case of an emergency, including how to remove PPE safely after exposure to hazardous materials.

Conclusion

That was our essential personal protective equipment list.

Personal Protective Equipment is vital for maintaining safety in various industries. 

From head protection to proper footwear, each piece of PPE serves a specific purpose in preventing injury and harm. 

Employers must provide appropriate PPE and ensure workers are trained in its use, care, and maintenance.

Regular inspections and timely replacements ensure that PPE continues to offer adequate protection. 

While PPE is a legal requirement in many workplaces, its importance goes beyond compliance. 

It safeguards lives and helps create a safer work environment for everyone. 

By investing in the right PPE and ensuring it’s used correctly, businesses can minimise risks and keep their workers safe.

The holistic approach for high grade industrial fire services

by Breaking NewsIndustrial

Kees Kappetijn, consultant at Kappetijn Safety Specialists, examines Tata Steel’s fire brigade model, a holistic approach that integrates safety, continuity and comprehensive response readiness

Most industrial fire brigades in the Netherlands are based on the European Seveso regulations for external safety.

They cover incident risks that are often too large for public fire services to handle and must provide a rapid initial response to prevent incidents from escalating and affecting the safety of the surrounding area.

However, some companies go beyond the legal requirements and view a well-equipped corporate fire brigade as a form of ‘insurance’ for their assets, business processes and production continuity.

Tata Steel IJmuiden, located in the seaport of IJmuiden, is one such company.

 The corporate fire brigade serves as a safeguard for a safe work environment without disruptions.

Chris van Amersfoort is the Fire Chief of Tata Steel IJmuiden’s corporate fire brigade, part of Tata Steel Netherlands.

Together with department manager Ferry van der Kolk, he provides insight into the unique corporate fire brigade organisation at this leading steel production company.

Chris says: “Tata Steel IJmuiden has had a designation order for a mandatory corporate fire brigade since 2005, based on the Seveso III directive.

However, Tata’s safety policy and fire brigade services go far beyond this legal requirement, due to the company’s ambition to optimally protect its employees and facilities from incidents and emergencies.”

Organisation and Tasks

The Tata Steel IJmuiden corporate fire brigade provides 24/7 fire response services on the vast company grounds.

The brigade has a staff of 22 full-time employees on duty during the day, who handle “cold tasks,” such as prevention, maintenance of equipment, planning, training and drills.

Operational response is handled by 59 volunteer firefighters, divided into six response teams and a duty roster of five officers on call.

These volunteers work in various company processes on-site and are alerted by pager in case of an incident by the control room of the Corporate Security Service, the central hub of Tata Steel IJmuiden’s safety and security organisation.

Chris says: “Because the volunteers of the response service have their regular jobs in the various production facilities, factories and logistics operations, there is a wealth of knowledge within the response teams about the site, buildings and company processes.

“This is important because many of the buildings are immense in both area and height and have complex layouts with specific risks and hazards.

The building, site and process knowledge embedded in their daily work is a great asset for the firefighters when they need to respond to an incident in those areas.”

According to Chris, the unique characteristics of Tata Steel IJmuiden’s site and buildings are also the reason for the company’s special collaboration with the public fire service.

Chris explains: “Our legal responsibility is to provide readiness for the critical incident scenarios outlined in the corporate fire brigade designation, the ‘Seveso scenarios.’

“The most important is a ‘flare fire’ from the coking gas pipeline in the above-ground pipe street, which radiates heat to the adjacent blast furnace gas pipeline, with the risk of escalation.

This is a scenario with a very low probability but potentially severe consequences, which we are required to control by cooling the blast furnace gas pipeline with our emergency response capabilities.”

However, the vast majority of the corporate fire brigade’s operational work, accounting for around 100 call-outs annually, involves smaller incidents not covered by the designation.

Chris: “In fact, these scenarios fall under ‘basic fire services’ and would typically be handled by the public fire service of the Kennemerland Safety Region (when we would call 112).

But it’s precisely these more common scenarios, such as fires in buildings and installations, accidents and incidents involving hazardous materials in the factories and Infrastructure, we want to manage quickly and effectively, from the earlier mentioned perspective of business continuity and employee safety.”

Scaling and response equipment

Deputy Commander and Department Manager Ferry van der Kolk explains how the internal requirements for rapid incident control have been translated into response and scaling-up procedures: “The mandate requires us to have a fire engine with a minimum crew of six firefighters available 24/7 for a quick initial response.

However, our emergency response organisation consists of six teams, each with nine firefighters and in practice, this strength is almost always present on-site.

“With the first crew, we can man one fire engine and the rescue vehicle.

However, upon any incident report, all teams are alerted, including off-duty volunteers.

All of them live in the mandatory residential area near the Tata Steel site: the village of Velsen-Noord.

They can be on-site very quickly to man the remaining vehicles.

Through this internal scaling-up, we can staff the remaining response vehicles, allowing us to handle a significant task with our own personnel.”

Tata Steel IJmuiden’s ‘operational fire fleet’ consists of three fire engines and a rescue vehicle.

Additionally, there are several multifunctional personnel/material trucks, which can tow a portable pump, powder, or foam extinguishing trailer if necessary.

For operational leadership during incidents, the company has its own pool of trained officers on duty.

Ferry says: “In short, our response procedure is that we deploy our full potential at every incident, allowing us to make a strong response to control an incident immediately.

If, after the first unit and Officer on Duty arrive, it turns out that the incident is minor, we scale down.”

Collaboration with public fire services

The nature of the site, the industrial processes and the complexity of the enormous production buildings give the concept of ‘basic fire services’ a somewhat different character than what is typically understood by the public fire service.

Many factories operate with complex and heavy machinery and equipment at very high temperatures.

One scenario that could occur is a ‘spill’ of liquid steel, which can pose a danger to the production facilities.

The task of the corporate fire brigade in such a situation is to cool the liquid steel to solidify it.

This is not a ‘Seveso scenario’ from the mandate, but a ‘basic fire service task’ Tata Steel-style.

It’s certainly not a scenario that the public fire service has experience with.

However, there is cooperation with the public fire service.

The brigade regularly conducts joint exercises with colleagues from the public fire service, both at operational and staff levels.

‘Cold tasks’

Equally important as a quick response to incidents are the so-called ‘cold fire tasks.’ The staff of 22 full-time employees during ‘day shifts’ is divided into several teams, each with its own set of tasks.

For example, there is a prevention team with two fire safety engineers and one fire prevention specialist, who are collectively responsible for fire safety advice and planning.

Chris explains: “Tata Steel IJmuiden’s fire safety policy goes significantly beyond the legal fire safety requirements, which are primarily aimed at ensuring safe evacuation for individuals and controlling fires.

Our installations and buildings are so large and complex that the standard regulations are simply inadequate.

There is always plenty of work for these fire prevention specialists, as continuous renovations, new constructions and adjustments to buildings and infrastructure are happening on our site.”

Another cold task is the management and maintenance of fixed fire protection systems on the Tata Steel complex.

The site has more than 120 fire suppression systems, such as sprinkler and foam extinguishing installations and over 200 fire alarm systems.

The equipment and materials team is responsible for managing and maintaining the rolling stock of the corporate fire brigade and the equipment on the vehicles.

This team is also responsible for maintaining over 9,000 small extinguishing devices on-site, such as hand-held extinguishers, mobile extinguishers and hose reels.

Both the team and the small extinguisher workshop are REOB-certified (Regulation for the Recognition of Fire Extinguisher Maintenance).

Lastly, the training and drills team is responsible for all fire brigade training, basic skill training and organising the nine annual drill days, which all corporate firefighters are required to attend.

This team also manages the training of the 1,200 emergency responders on the site.

Future challenges

In the coming years, significant challenges in the areas of prevention and operational preparedness await Chris van Amersfoort and his team.

These challenges are related to Tata Steel Nederland’s substantial sustainability ambitions.

Tata Steel is working towards green, clean and circular steel with less impact on the surrounding environment.

The company aims to ‘go green’ and is modifying its production processes to achieve a 40% reduction in CO2 emissions by 2030, with the goal of becoming fully CO2-neutral by 2045.

Tata Steel plans to achieve these targets by replacing coal/coke with natural gas and eventually green hydrogen as the energy source for making liquid iron.

The company is also investing heavily in measures to reduce other forms of environmental pollution.

Particularly in the energy and raw materials transition, the corporate fire brigade plays a key advisory role and the response organisation is already training and building knowledge to be ready for new risks and scenarios associated with the hydrogen transition.

In this way, the corporate fire brigade, through its non-operational tasks, also plays an essential role in ensuring safety in the ‘green steel factory of the future.’

This article was originally published in the December 2024 issue of International Fire & Safety Journal – to read your FREE digital copy, click here.

Fire Risk Assessment – A Guide for Workplaces

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A Fire risk assessment is crucial in ensuring the safety of a workplace. 

They help identify potential fire hazards and create a plan to reduce risks. 

Having an effective fire risk assessment can prevent serious incidents and save lives.

In this article, we will explore what a fire risk assessment is, why it’s necessary, who needs it, how to conduct one, and how often it should be done.

What is a Fire Risk Assessment?

what is fire risk assessment

A fire risk assessment is a process that identifies potential fire hazards in a workplace and evaluates the risk they pose. 

The goal is to prevent fires from starting and to ensure that people can safely evacuate if one occurs. 

The assessment involves looking for sources of ignition, flammable materials, and any risks that could make a fire worse.

It also includes checking if there are enough fire safety measures in place, such as fire alarms, extinguishers, and emergency exits. 

The findings help create an action plan to reduce risks, ensuring the workplace complies with fire safety regulations.

A fire risk assessment isn’t just a one-time task. 

It needs to be reviewed regularly, especially if there are changes in the workplace, like new equipment or staff. 

By conducting regular fire risk assessments, workplaces can minimise the chance of fires, protect lives, and avoid costly damages. 

They’re a legal requirement for most businesses, but more importantly, they ensure a safe environment for everyone in the building.

Why is a Fire Risk Assessment Needed?

why fire risk assessment needed

A fire risk assessment is essential for several reasons. 

Legal Requirements

It ensures that workplaces comply with legal requirements. 

Many countries have laws that mandate regular fire risk assessments for businesses.

Accident Prevention

Fire risk assessments help prevent accidents and injuries. 

Fires can spread quickly, and without proper precautions, they can cause serious damage or even fatalities. 

Identifying fire hazards early allows businesses to put in place measures to prevent fires.

Property Protection

A fire risk assessment helps protect property. 

Fires can cause significant financial losses by damaging buildings, equipment, and inventory. 

By reducing fire risks, businesses can protect their investments and ensure continuity.

Safe Working Environment

Finally, fire risk assessments promote a safe working environment. 

Employees will feel safer knowing that their workplace has taken steps to protect them from potential fire risks. 

This can boost morale and increase productivity.

Who Needs a Fire Risk Assessment?

who needs fire risk assessment

A fire risk assessment is essential for almost all businesses and organisations. 

It is a legal requirement in most countries for any workplace that has more than five employees. 

Whether it’s a small office, a large factory, or a retail store, fire risks exist, and conducting regular fire risk assessments helps minimise them.

Businesses and Offices

Any business, regardless of size or industry, needs a fire risk assessment. 

This includes offices, retail stores, restaurants, and warehouses. 

Even low-risk environments, like small offices, should assess potential fire hazards, such as electrical equipment or paper storage.

Industrial Facilities

Factories and warehouses deal with larger risks, especially when handling hazardous materials, machinery, or chemicals. 

Regular assessments help manage these risks and ensure that proper safety measures, like fire suppression systems and clear evacuation routes, are in place.

Public Buildings

Public spaces, such as schools, healthcare buildings such as hospitals, and care homes, need fire risk assessments to protect large groups of people. 

These places often have vulnerable individuals, such as children, the elderly, or people with disabilities, who require extra safety considerations during evacuation.

Landlords and Property Owners

Landlords and property managers are responsible for ensuring that their properties, particularly multi-occupancy buildings like apartment complexes, are fire-safe. 

Regular fire risk assessments ensure that residents have adequate fire alarms, clear escape routes, and functioning fire doors.

What to do For a Fire Risk Assessment

fire risk assessment what to do

Conducting a fire risk assessment is essential for maintaining workplace safety. 

It involves identifying potential fire hazards, assessing risks, and implementing measures to reduce those risks. 

Below is a step-by-step guide on what to do for a fire risk assessment.

Identify Fire Hazards

The first step in a fire risk assessment is identifying potential fire hazards in the workplace. 

Hazards can include sources of ignition, such as electrical equipment, heaters, or machinery, and combustible materials like paper, fabric, or chemicals. 

Look for areas where heat or sparks could come into contact with flammable items. 

This can be anything from overloaded power outlets to improper chemical storage.

Identify People at Risk

Next, identify who might be at risk in the event of a fire. 

This includes not only employees but also visitors, contractors, or members of the public. 

Consider specific groups that may be more vulnerable, such as the elderly, disabled, or those with mobility issues. 

Make sure that emergency exits and lighting, and evacuation procedures are suitable for everyone, including those who may need assistance during an evacuation.

Evaluate the Risks and Take Action

Once you’ve identified hazards and people at risk, evaluate the level of risk associated with each hazard. 

Ask yourself: How likely is it that a fire could start, and how severe would the consequences be? 

After evaluating the risks, take appropriate actions to eliminate or reduce them. 

This could involve:

  • Removing or reducing fire hazards (e.g., properly storing flammable materials).
  • Installing or improving fire detection systems, such as smoke alarms.
  • Ensuring that fire extinguishers are accessible and maintained.
  • Implementing clear fire safety protocols and ensuring exits are unobstructed.

Record Your Findings and Implement Changes

In businesses with more than five employees, it is a legal requirement to document your findings. 

This documentation should include the hazards identified, the people at risk, and the actions taken to reduce or eliminate risks. 

Keep a detailed log of all fire safety measures in place, such as fire extinguishers, fire exits, and alarms.

Once you have recorded the findings, make sure the necessary changes are implemented. 

Assign responsibilities to individuals, such as fire wardens or fire marshals, who can oversee the implementation of safety measures.

Review and Update Regularly

Fire risk assessments are not a one-time task and should be reviewed regularly.

By keeping your assessment up to date, you ensure that new risks are addressed, and fire safety measures remain effective.

Who Can Do a Fire Risk Assessment?

who can do fire risk assessment

A fire risk assessment can be conducted by a competent person within the workplace. 

This person must have adequate knowledge of fire safety regulations and an understanding of fire hazards. 

Often, businesses will appoint a fire warden or safety officer to conduct these assessments.

For complex buildings or high-risk environments, it may be necessary to hire a professional fire risk assessor. 

A professional will have the expertise and experience to identify risks that might be overlooked by someone with less training.

Some businesses choose to outsource their fire risk assessment entirely to certified professionals. 

This ensures that the assessment is thorough and compliant with legal standards. 

However, even if you hire a professional, the employer is still responsible for ensuring the assessment is carried out properly.

How Often Should a Fire Risk Assessment be Done?

how often fire risk assessment

A fire risk assessment should be conducted regularly to ensure the safety of a workplace and its occupants. 

The frequency of these assessments depends on various factors, such as the type of business, the size of the premises, and the level of fire risk involved.

Annual Reviews

As a general rule, businesses should review their fire risk assessments at least once a year. 

This ensures that any changes in the workplace, such as new equipment or changes in staff, are considered and any new risks are identified and addressed.

After Significant Changes

If there are significant changes in the workplace, such as renovations, new machinery, or changes in the number of employees, a new fire risk assessment should be done immediately. 

These changes can introduce new fire hazards or affect existing safety measures, such as fire exits or alarm systems.

High-Risk Environments

Workplaces with higher fire risks, such as factories, chemical plants, or places that handle flammable materials, may need more frequent fire risk assessments. 

Depending on the level of risk, reviews might be necessary every six months or even quarterly.

After a Fire Incident

If a fire has occurred, an immediate review and reassessment should be conducted. 

This helps identify what went wrong and ensures that additional safety measures are put in place to prevent future incidents.

Conclusion

You should now have the knowledge on exactly what a fire risk assessment is. 

A Fire risk assessment is vital for ensuring workplace safety and preventing devastating incidents. 

They help identify potential hazards, protect employees, and ensure compliance with fire safety regulations. 

Conducting regular fire risk assessments, documenting findings, and acting on identified risks will create a safer environment for everyone. 

Remember, whether your workplace is an office, a factory, or a care home, fire safety is a responsibility that should never be overlooked. 

By following the steps outlined in this guide, you can ensure that your fire risk assessment is thorough, effective, and up to date.

UK manufacturers urged to adopt updated railway fire safety standards

by Featured NewsIndustrialSafety

Updated fire safety standards for railway products

Manufacturers in the UK producing railway seating, floors, and wall linings are being encouraged to adopt the updated BS EN 45545-2:2020 fire safety standards.

These standards, titled ‘Railway applications. Fire protection on railway vehicles – Requirements for fire behaviour of materials and components’, became effective in August 2023 in the UK.

Although not yet integrated into the National Technical Specification Notice (NTSN), the standards ensure compliance with modern fire safety requirements.

The EU has set a January 1, 2026, deadline for transitioning from the older BS EN 45545-2:2013+A1:2015 standard.

However, the UK has not confirmed when the updated standards will become mandatory.

The role of Warringtonfire in supporting compliance

Warringtonfire, part of Element Materials Technology, has urged UK manufacturers to begin testing against the updated 2020 standards.

Dennis Tuyogon, Lead Analytical Chemist at Warringtonfire, said: “By adopting the updated 2020 standard, you will fully meet current UK and EU requirements, making the transition straightforward and ensuring compliance with the latest regulatory expectations.”

Tuyogon highlighted the risks of delaying compliance, including potential retesting costs and non-compliance with future mandates.

He added: “Transitioning now ensures products deliver safe and effective fire resistance and compliance, while also providing a competitive advantage.”

Industry engagement through seminars

To raise awareness, Warringtonfire hosted its first Rail Seminar on October 15, 2024.

The event gathered train builders, trade associations, and rail engineering professionals to discuss the updated standard.

Quarterly seminars are planned, with the next scheduled for February 2025.

These events aim to provide industry stakeholders with insights into the updated regulations and their implications.

The seminars reflect Warringtonfire’s commitment to supporting the rail industry in achieving fire safety compliance and aligning with modern standards.

Technical advancements in BS EN 45545-2:2020

The 2020 revision of BS EN 45545-2 includes updates to testing methodologies, reflecting lessons learned and industry advancements.

While the changes are not extensive, they aim to align safety requirements with current industry knowledge.

Warringtonfire provides comprehensive testing services to meet these updated requirements, including flammability, smoke density, and toxicity testing.

Specific tests include ISO 5658-2 for flame spread and ISO 5660-1 for cone calorimeter analysis.

UK rail product manufacturers encouraged to comply with BS EN 45545-2:2020: Summary

Manufacturers in the UK are urged to adopt the updated BS EN 45545-2:2020 fire safety standards for railway products.

Warringtonfire emphasises the benefits of early compliance to meet UK and EU requirements, avoid retesting costs, and maintain competitiveness.

The updated standards incorporate improved testing methodologies and align with modern safety expectations.

Through its seminars and testing services, Warringtonfire is actively supporting the industry in achieving compliance.

New fire protection guidelines launched for battery energy storage in Sweden

by Featured NewsIndustrialSafetySustainability

Guideline introduction aims to enhance safety of energy storage systems in Sweden

Swedish Solar Energy has issued an updated fire protection guideline, version 1.1, focusing on the installation of stationary battery storage systems (BESS) in Sweden.

This latest version, released on October 29, 2024, was developed after consultations with industry members, including input from the Swedish Fire Protection Association.

As renewable energy adoption and the use of lithium battery storage expand, the guideline aims to support safety for battery installations across both private and commercial settings.

The new guideline is directed at a broad range of stakeholders, such as installers, property owners, and others in the energy storage industry.

Swedish Solar Energy’s CEO, Anna Werner, stated: “With this guideline, we want to make it easier for players in the industry to work safely and sustainably.

“It is an important tool to ensure fire safety and at the same time support the expansion of energy storage systems in Sweden.”

Guideline offers safety guidance and risk assessment strategies

The updated document provides actionable guidance on safe battery installation, maintenance, risk assessments, and battery placement.

With the rising use of lithium batteries in energy storage, Swedish Solar Energy intends for these measures to mitigate risks associated with battery fires and explosions.

The guideline encompasses both small-scale residential battery setups and large industrial installations, such as freestanding commercial battery units.

It also outlines precautionary measures to reduce fire risks and offers procedures for emergency response preparations.

Rising demand for battery storage among Swedish households

Swedish Solar Energy reports a significant increase in tax credits granted for home battery installations, reflecting the growth in residential energy storage demand.

Tax credit approvals rose from 2,000 in 2021 to 43,000 in 2023.

The trend is anticipated to persist, with home battery installations projected to increase from approximately 200 MW to nearly 400 MW in 2024.

In the commercial sector, battery capacity is also set to grow, with installations on industrial sites expected to collectively surpass 1,000 MW by the end of 2024, compared to around 100 MW at the end of 2023.

Growth in battery projects supporting the Swedish power grid

The number of batteries pre-qualified to deliver support services to the Swedish power grid rose substantially from 40 MW to 80 MW in 2023.

By early October 2024, more than 530 MW of battery capacity had been pre-qualified, with several additional projects awaiting approval.

This increase underscores the growing role of battery storage systems in stabilising and supporting Sweden’s energy infrastructure.

Swedish Solar Energy releases updated fire protection guideline for battery storage systems: Summary

Swedish Solar Energy launched version 1.1 of its fire protection guideline for stationary battery storage systems on October 29, 2024.

Developed with industry input, the guideline is aimed at enhancing the safety of lithium battery installations across residential and commercial settings.

It provides installation, maintenance, and risk assessment advice to support the safe use of battery storage systems.

Demand for energy storage has grown notably, with tax credits for residential systems rising from 2,000 in 2021 to 43,000 in 2023.

Large-scale battery projects are also expanding, with commercial installations set to exceed 1,000 MW by the end of 2024.

Additionally, battery capacity pre-qualified for grid support has increased, marking a significant advancement in Sweden’s energy infrastructure.

Rosenbauer and Miba collaborate on electric airport fire trucks in Austria

by AviationFeatured NewsIndustrialVehicles

Partnership to support electric special-purpose vehicles

Rosenbauer has formed a long-term partnership with Miba Battery Systems to drive the development of advanced battery solutions for electric special-purpose vehicles.

As reported by Rosenbauer, this collaboration aims to enhance energy efficiency and reduce the weight of battery systems in vehicles like the new PANTHER electric airport fire truck, supporting high-performance requirements in emergency response.

Battery production will be based at Miba’s facility in Bad Leonfelden, Upper Austria, where both companies seek to contribute to regional job stability in technology and promote Austria’s role in e-mobility.

Sebastian Wolf, CEO of Rosenbauer, noted the significance of a dependable partnership for specialized vehicle production.

He stated: “As a manufacturer of special-purpose vehicles, it is particularly important for us to have long-term and reliable partners by our side, with whom we can meet the specific requirements in terms of performance and reliability of our products in the firefighting sector.

“I am delighted that we have succeeded in this with Miba Battery Systems.”

Battery solution improves efficiency for electric fire trucks

Miba Battery Systems has developed a specialised battery solution tailored to the needs of Rosenbauer’s PANTHER electric fire truck.

This new battery system enables a reduction in vehicle weight while providing enhanced acceleration and performance, addressing the demanding requirements of emergency operations.

Stefan Gaigg, Managing Director of Miba Battery Systems, explained: “With our specially developed battery solution, we have managed to significantly increase the efficiency of special-purpose vehicles like the PANTHER electric.

“Thanks to the lighter construction, we reduce vehicle weight, enabling faster acceleration.

“This provides more performance with less weight, a decisive advantage in emergency operations.”

The battery packs designed by Miba Battery Systems span a range of voltages, from 48 to 800 volts, and integrate cutting-edge cell technology initially developed for automotive applications.

New PANTHER electric fire truck sets performance benchmarks

The new PANTHER electric fire truck represents a strategic advancement in Rosenbauer’s electrification efforts, offering improved efficiency and power while maintaining essential operational capabilities.

By employing Miba’s battery technology, this electric vehicle is positioned as a performance benchmark within the airport fire truck category.

Rosenbauer has indicated that this partnership not only enhances product performance but also aligns with the company’s goals for sustainable vehicle technology in emergency response.

Austria strengthens position in e-mobility with new battery production

The partnership between Rosenbauer and Miba Battery Systems also secures technology-related jobs within Upper Austria, promoting regional economic growth through the production of advanced battery systems for electric vehicles.

Miba’s facility in Bad Leonfelden is set to play a central role in manufacturing these batteries, contributing to Austria’s standing in the e-mobility sector.

The initiative highlights the capabilities of Austrian companies in developing technology-driven solutions for firefighting and emergency response.

The collaboration between Rosenbauer and Miba reflects a commitment to supporting the evolution of emergency response vehicles while fostering local job opportunities within the technology sector.

Rosenbauer and Miba collaborate on electric airport fire trucks in Austria: Summary

Rosenbauer and Miba Battery Systems have entered a long-term partnership aimed at advancing battery technology for electric airport fire trucks.

The collaboration focuses on developing lighter, high-performance batteries for vehicles such as Rosenbauer’s new PANTHER electric fire truck, manufactured at Miba’s Upper Austrian plant in Bad Leonfelden.

Rosenbauer’s CEO, Sebastian Wolf, highlighted the importance of reliable partnerships in meeting performance demands for specialised vehicles.

Miba’s Managing Director, Stefan Gaigg, noted that the battery solution enhances vehicle efficiency, reducing weight while improving acceleration.

The initiative not only supports local job creation in technology but also reinforces Austria’s position in e-mobility solutions for emergency response vehicles.

Fogmaker HDME fire suppression system earns FM approval for mining applications

by Featured NewsFire SuppressionIndustrial

FM approval awarded to Fogmaker HDME fire suppression system

As reported by Fogmaker, the company’s High-Pressure HDME Fire-Suppression System has received FM 5970 Approval, a significant certification for use in the mining industry.

The system, already widely used in over 60 countries, has been tested and certified by several prominent certification bodies.

This FM approval adds to Fogmaker’s list of existing certifications, including the UL mark, SPCR 197 and 199, and AS 5062:2016.

This approval reinforces the system’s reputation as one of the most extensively tested and certified fire suppression products in the world.

Fogmaker emphasises importance of certification for the mining sector

Mario Flores, Fogmaker’s Key Account Manager, responsible for the Mining Segment, expressed excitement about the certification.

Flores said: “This is very exciting. We’re not just certified, we’re approved at the highest level and verified by the most respected certification bodies in the world.”

The approval is expected to enhance Fogmaker’s ability to meet the demands of mining operations where fire suppression is critical for safety.

CEO highlights rigorous testing process and customer benefits

Fogmaker’s CEO, Lars Alrutz, highlighted the testing and certification process: “We are thrilled with the new certification.

Our product has stood up to rigorous testing and the FM Approval will allow us to better serve our valued customers in the Mining segment.”

This certification marks a key development for Fogmaker in advancing its vision of providing safer environments globally.

The company aims to continue improving safety standards within the mining sector and beyond.

Eco-friendly fire suppressant gains recognition

The certification testing was conducted using Fogmaker’s new Eco 1 suppressant, a 100% PFAS-Free liquid that has earned GreenScreen Certified™ status at the silver level.

The combination of fire protection and sustainability is central to Fogmaker’s approach, further proving that safety and environmental responsibility can go hand in hand.

The company believes that its Eco 1 suppressant offers an effective, environmentally friendly solution for industries where fire suppression is essential.

This new certification confirms that the product meets both high safety and sustainability standards.

Fogmaker HDME fire suppression system earns FM approval for mining applications: Summary

Fogmaker has announced that its High-Pressure HDME Fire-Suppression System has received FM 5970 Approval for use in the mining industry.

The system, already holding multiple certifications, has undergone extensive testing, confirming its effectiveness.

Mario Flores, Key Account Manager, and Lars Alrutz, CEO, expressed their enthusiasm for the certification, emphasising its importance for the company’s mining sector operations.

The testing involved Fogmaker’s new PFAS-free Eco 1 suppressant, which is also GreenScreen Certified™ at the silver level, aligning with the company’s commitment to sustainability.