FireDrone targets 200°C missions for firefighters and high-temperature industry sites

FireDrone built for live data capture in high-risk heat and smoke

The Federal Laboratory for Materials Testing and Research has announced a new generation of FireDrone for firefighting and high-temperature industrial inspections.

The drone is presented as a way to provide real-time information from areas considered too dangerous for people and conventional drones.

The press release from the Laboratory says the technology was developed at Empa and is now being further developed by an Empa and EPFL spin-off.

Fabian Wiesemüller, Empa researcher and co-founder of the FireDrone start-up, said: “Today, firefighters have to physically enter burning buildings to locate hazardous materials or missing persons.

“With the FireDrone, we can now send a drone into hazardous areas to do just that – significantly minimizing the risk during operations.”

The release frames the drone’s intended use around large and complex structures such as industrial halls, parking garages and tunnels.

David Häusermann, Empa researcher and co-founder of the FireDrone start-up, said: “A drone that can fly over such areas quickly and without damage offers clear added value.”

FireDrone insulation, sensors and indoor operation

The organisation set out FireDrone’s heat resistance, insulation approach and payload options.

Conventional drones are described as reaching their limits at around 40 degrees Celsius when frames deform and electronics fail.

FireDrone is stated as being able to fly at temperatures of up to 200 degrees Celsius.

The insulation is described as a patented, ultra-light aerogel with air-filled pores enclosed in heat-resistant plastic.

The release states that earlier insulation relied on a glass fiber-reinforced composite structure made of polyimide and silica, and that the new version uses a pure polyimide aerogel.

Häusermann said: “We can cast the aerogel in three-dimensional shapes and tailor it to the drone.”

The release states that the drone includes an internal temperature management system designed to cool and monitor the electronics continuously.

An infrared camera is described as transmitting high-resolution thermal images in real time to a large screen on the remote control.

Häusermann said: “Today, often only the first firefighters inside the building can see what it looks like inside.

“With the drone, the incident commander can get an overview of the situation before anyone enters the building.”

Optional payloads mentioned include additional cameras and sensors, including tools to measure outside temperatures and detect gases produced by fires.

Indoor flight is described as a core requirement, with development work focused on pilot assistance and localisation systems for environments where satellite navigation is unavailable.

Wiesemüller said: “GPS is not available in many of our operational scenarios.

“That’s why we are developing pilot assistance and localization systems that function reliably even without a satellite signal.”

Testing, funding support and FireDrone Nest plans

The organisation outlined testing activity and the spin-off’s next development steps.

FireDrone is described as the result of several years of research in Empa’s Sustainability Robotics and Building Energy Materials and Components laboratories.

The spin-off is described as having tested the drone at the training ground of the Andelfingen training center and at the Holcim cement plant in Siggenthal.

Häusermann said: “Tests are crucial for making the transition from the laboratory to practical application.

“In future, pilots should be able to use these drones safely in extreme situations with minimal training.”

Support named in the release includes Venture Kick, the Gebert Rüf Foundation and the Innovation Booster Robotics.

A related project described is FireDrone Nest, a mobile, thermally insulated docking and maintenance station intended to enable automatic landing after a mission, secure the drone and prepare it for the next flight.

Wiesemüller said: “The transition from research project to practical application would not have been possible without Empa’s years of support.

“Now it’s a matter of putting the technology to use in real-world applications.”

The release also references a longer-term aim for a mobile docking and maintenance station that can be integrated into fire trucks or modern fire protection systems.

Is Hydrogen Flammable?

Hydrogen is one of the most talked-about elements in modern science and energy discussions. 

It plays a vital role in the universe, in industries on Earth, and increasingly in clean energy solutions. 

From rocket fuel to potential uses in powering vehicles and homes, hydrogen is a substance with enormous potential. 

Yet, with all its advantages, there are also concerns, such as ‘is hydrogen flammable’, and around how it behaves in different conditions. 

Understanding hydrogen’s properties is key to using it safely and effectively. 

What is Hydrogen?

image of hydrogen atom
Source: Wikipedia

Hydrogen is the simplest and lightest chemical element, with each atom containing just one proton. 

It is by far the most abundant element in the universe and is found on Earth mostly in compounds. 

Under normal conditions, pure hydrogen exists as a gas composed of two-atom molecules (H₂). 

It is a colourless, odourless, and non-toxic gas, which means humans cannot detect it by smell or sight. 

In industry, hydrogen has been produced and used safely for decades in large quantities, and it has long been used as a rocket fuel. 

Today, hydrogen is also being explored as a clean energy carrier for vehicles and power generation, since burning hydrogen does not produce carbon emissions.

Is Hydrogen Flammable?

is hydrogen flammable image

Yes. 

Hydrogen is a highly flammable substance. 

Hydrogen will combust if it is mixed with oxygen and exposed to an ignition source. 

Hydrogen ignites more readily and over a wider range of conditions than many other fuels. 

Hydrogen can catch fire when as little as about 4% of the air is hydrogen. 

This flammability range (4–75% in air) is much broader than that of most hydrocarbons. 

Moreover, it takes very little energy to set hydrogen gas on fire. 

Even a tiny spark of static electricity is enough to ignite a hydrogen–air mixture. 

This means hydrogen gas can be ignited very easily by a small spark or hot surface. 

Once ignited, it burns quickly and releases a large amount of heat, which makes it a powerful fuel but also means any ignition must be prevented through careful handling.

Why is Hydrogen so Flammable?

Hydrogen’s high flammability comes from both its chemistry and its ignition properties. 

Chemically, hydrogen fuel reacts very easily with oxygen, releasing a lot of energy in the form of heat when it forms water. 

The combustion of hydrogen is a strongly exothermic reaction

Once a hydrogen fire starts, it can sustain itself and spread rapidly because of this energy release.

Low Ignition Energy and Broad Flammability Range

Physically, hydrogen is easier to ignite than most fuels. 

Only a very small amount of energy is needed to ignite hydrogen gas – on the order of 0.02 millijoules for an optimal hydrogen–air mix. 

Such a low ignition threshold means even a tiny static spark or minor heat source can set off hydrogen. 

Moreover, hydrogen can burn across a very broad range of concentrations. 

Heat Intensity and the Need for Oxygen

Hydrogen flames burn extremely hot (roughly 2,000°C in air), which contributes to the rapid release of energy once ignited. 

All these factors explain why hydrogen ignites so readily and burns so vigorously. 

However, it is important to note that hydrogen on its own will not burn unless an oxidiser (like oxygen in air) is present. 

For example, hydrogen stored in a tank cannot ignite by itself.

It needs to leak out and mix with air before combustion can occur.

Why is Hydrogen Used if it is Flammable

image of rocket taking off with hydrogen fuel

If hydrogen can be risky, why do people still use it? 

The answer is that virtually all fuels are flammable.

We use flammable substances all the time, such as petrol, diesel, or natural gas, because they provide useful energy. 

Hydrogen is no different in that regard. 

It is not inherently more dangerous than other common fuels, and in some respects it behaves more safely in open environments. 

With proper precautions, hydrogen can be handled as safely as petrol or other fuels. 

Industry has, in fact, used hydrogen for many decades in large volumes (for instance, in refining and in rocket propulsion) with a strong safety record.

Advantages of Using Hydrogen as a Fuel

We choose to use hydrogen because it offers significant benefits as a fuel and industrial chemical. 

One major advantage is its energy content: hydrogen contains more energy per unit weight than any other common fuel, about three times the energy of petrol by weight. 

This high energy density (by weight) makes hydrogen very powerful.

It’s one reason hydrogen is used as rocket fuel. 

Another advantage is that burning hydrogen produces no carbon dioxide or soot. 

The only by-product of hydrogen combustion is water, so using hydrogen as a fuel can eliminate tailpipe emissions of greenhouse gases and pollutants. 

This clean aspect of hydrogen is very attractive for fighting air pollution and climate change. 

How to Stay Safe When Using Hydrogen

image of safe hydrogen storage

Working safely with hydrogen requires strict adherence to guidelines. Important safety practices include:

Prevent Leaks

Use proper system design, quality components, and regular maintenance to avoid hydrogen leaks. 

Preventing hydrogen from unintentionally escaping is the first and most important step in hydrogen safety.

Provide Ventilation

Any area where hydrogen is stored or used should be well-ventilated. 

Good ventilation will disperse any leaked hydrogen and dilute it below the flammable concentration.

Eliminate Ignition Sources

Keep open flames, sparks, or hot objects away from hydrogen. 

This includes banning smoking and using only spark-proof tools or electronics in hydrogen areas. 

Even static electricity should be controlled by grounding equipment, since hydrogen can be ignited by a tiny spark.

Use Proper Storage

Store hydrogen in approved containers or cylinders equipped with pressure-relief devices. 

These safety valves will release gas if pressure builds up too high, preventing tank ruptures. 

Cylinders should be kept in cool, well-ventilated places.

Install Leak Detectors

Because hydrogen gas has no smell and burns with an almost invisible flame, electronic hydrogen detectors and alarm systems are essential. 

Sensors can alert users to a leak long before it reaches dangerous levels, and specialised flame detectors can help detect hydrogen fires.

Training and Procedures

Anyone handling hydrogen should have training in its properties and emergency procedures. 

Follow all applicable hydrogen safety standards and codes. 

Have clear protocols for how to respond to a suspected hydrogen leak or fire. 

Proper education and planning can make hydrogen as safe to work with as any other fuel.

Hydrogen Flammability Compared to Other Gases

When comparing hydrogen to other fuels like methane (natural gas), propane, or petrol vapour, we find that hydrogen is easier to ignite and burn over a wider range of conditions. 

Hydrogen can burn in air at concentrations from about 4% up to 75%. 

By contrast, methane ignites only between roughly 5% and 15% in air, and petrol (gasoline) vapour between about 1.4% and 7.6%. 

This means hydrogen can catch fire in mixtures that are too lean or too rich for other fuels to burn. 

Hydrogen also requires a much smaller spark to ignite. 

The minimum ignition energy for a hydrogen–air mixture is around 0.02 mJ, whereas methane or petrol vapour need on the order of 0.2–0.3 mJ to ignite. 

A tiny static spark that would ignite hydrogen might not be enough to ignite the other fuels.

Gas Dispersion and Accumulation Differences

Another key difference is how these gases behave when released. 

Hydrogen is far lighter than air (about 14 times lighter), so it rises and disperses quickly. 

If hydrogen leaks outdoors, it will rapidly float up and dilute, making it less likely to accumulate and cause a fire or explosion. 

Methane is also lighter than air (though not as much as hydrogen).

Propane and petrol fumes are heavier than air, so they tend to sink and collect near the ground, which can create a lingering flammable cloud. 

This means a propane leak in a poorly ventilated area can be more dangerous in terms of explosion risk, since the gas can pool in one place, while a hydrogen leak would probably disperse upward.

Flame Characteristics and Heat Radiation

Hydrogen fires have some different characteristics. 

A hydrogen flame is pale blue and almost invisible in daylight, and it radiates less heat than a hydrocarbon fire. 

This lower radiant heat means a hydrogen flame is less likely to ignite nearby materials from a distance. 

By contrast, burning natural gas or petrol produces more visible, yellow-orange flames and a lot of radiant heat (and smoke in the case of petrol). 

The downside is that a hydrogen flame can be hard to see, so detectors are important, but the upside is it doesn’t throw off as much heat to its surroundings.

Key Takeaways

You should now have an answer to the question of ‘is hydrogen flammable?’

Hydrogen is undeniably flammable.

It ignites easily and burns in a wide range of mixtures. 

This means we must treat hydrogen with respect and care to prevent accidents. 

However, hydrogen’s flammability is a hazard that can be managed with the right precautions, just as we manage other flammable fuels safely every day. 

Decades of industrial experience have demonstrated that hydrogen can be produced, stored, and used without incident when proper safety measures are in place.

Hydrogen’s benefits as a clean, high-energy fuel make it an important part of future energy solutions, so understanding its risks is crucial. 

Fortunately, scientists and engineers have developed detailed codes and standards to handle hydrogen safely, and they continue to improve technologies for leak detection, ventilation, and system design. 

While hydrogen is highly flammable, it is not ‘too dangerous’ to use – it simply requires knowledge and caution. 

By respecting hydrogen’s properties, we can safely harness its power as a valuable fuel for a cleaner energy future.

Halma acquires Italy-based Safetec in €72.5m fire and gas deal

Halma confirms Safetec acquisition in Italy

Halma has acquired Safetec, an Italy-based provider of customised fire and gas safety solutions for large-scale industrial projects.

The company said Safetec was founded in 2003 and is headquartered near Milan.

Halma said Safetec designs, engineers and delivers tailored systems for complex and high-risk industrial environments.

Purchase price, funding and business structure

Halma said the cash consideration is €72.5m, around £63m, on a cash- and debt-free basis.

It added that the acquisition will be funded from Halma’s existing facilities.

Halma said Safetec’s revenue for the 12 months to 31 December 2025 is forecast to be about €30m, around £26m.

The company said Safetec will operate as a standalone business within Halma’s Safety Sector, led by its current management team.

Safetec markets and regions cited

Halma said Safetec serves markets including power generation, oil and gas and pharmaceutical sectors.

It added that Safetec works in other highly regulated sectors where stringent safety requirements apply.

Halma said Safetec’s solutions support customers to manage risk and comply with industry standards in demanding environments.

The company said Safetec’s major geographic markets include the Middle East, Europe and Africa.

Executive comments on the deal

Marc Ronchetti, Group Chief Executive of Halma, commented: “Safetec further enhances our capabilities in fire and gas safety systems for complex industrial environments.

“It brings deep engineering expertise and a strong reputation for delivering high-quality, tailored safety solutions for its customers.

“These capabilities further strengthen the Safety sector and extend our reach in supporting the protection of lives and critical assets.

“We are pleased to welcome Safetec to Halma and excited by the opportunities for its continued growth.”

Marco Stumpo, CEO of Safetec, said: “We are delighted to join Halma, a group that shares our values and vision.

“By joining Halma, we retain our autonomy, while benefiting from Halma’s global network and expertise to accelerate our international growth and enhance our integrated safety solutions offering”.

What is a K Class Fire Extinguisher Used For?

Fire extinguishers are critical tools for stopping small fires before they spread, but it’s vital to use the correct type for each kind of fire. 

Using the wrong extinguisher can even make a fire worse.

Spraying water on a kitchen grease fire will only spread the flames. 

One particularly dangerous class of fire occurs in kitchens when cooking oils or fats overheat. 

These high-temperature grease fires. 

These are classified as Class K fires in the US, equivalent to Class F in the UK. 

They ignite suddenly and burn intensely. 

They require a special kind of extinguisher formulated specifically to handle burning oil and fat safely. 

This is where the Class K fire extinguisher comes into play: it is designed to tackle blazing cooking oils and keep a kitchen fire from turning into a disaster.

What is a K Class Fire Extinguisher Used For?

what is k class fire extinguisher

A Class K fire extinguisher is used for fires involving cooking oils, fats, and grease.

These are the types of fires that erupt in kitchens due to overheated oil. 

This extinguisher is specifically designed to combat blazing oil in deep fryers, frying pans, griddles, and other commercial cooking equipment. 

According to fire safety standards, a Class K extinguisher is the only effective means to safely put out fires fueled by vegetable oils, animal fats, or grease in cooking appliances.

What Makes a Class K Fire Extinguisher Unique

What makes the Class K extinguisher unique is its extinguishing agent. 

Unlike a water or dry powder extinguisher, a Class K unit contains a special wet chemical solution.

This is often potassium acetate or similar compounds. 

These chemical solutions are extremely effective on hot grease fires. 

When you discharge a Class K extinguisher onto burning oil, the wet chemical comes out as a fine mist and reacts with the fat. 

This reaction forms a thick, soapy foam blanket over the oil.

This process is called saponification

The foam smothers the flames by sealing off the oil from oxygen and also cools the oil below its ignition temperature, preventing the fire from reigniting.

Basically, the Class K extinguisher both starves the fire of oxygen and removes the heat, which are two essential elements needed for the fire to continue burning.

Why Can’t I Use a Different Fire Extinguisher on a K Class Fire?

why cant use other type fire extinguisher

You cannot substitute other types of fire extinguishers for a Class K fire because grease fires behave very differently from ordinary combustibles or flammable liquid fires

Fires involving cooking oil or fat require Class K extinguishers because no other extinguisher type can reliably or safely extinguish them. 

Using the wrong type can be ineffective or downright dangerous. 

Here’s why Class K fires need their own extinguisher and why other extinguishers won’t work:

Water Will Make a Grease Fire Worse

Never throw water on a burning pan of oil. 

Water is denser than oil, so it sinks below the burning grease and instantly turns into steam. 

As it evaporates, it expands to about 1,600 times its volume, erupting upward and carrying burning oil droplets with it. 

This causes the fire to explode and spread. 

Instead of cooling the fire, a splash of water can fling the flames to new areas (and possibly onto anyone nearby). 

Water and oil don’t mix, and using water will spread a Class K fire.

Standard Foam or Powder Extinguishers Aren’t Effective

Class B foam or dry powder extinguishers, which work for petrol or chemical fires, are not formulated for the extreme high-temperature conditions of cooking oil fires. 

Deep fryer oil can reach temperatures far above the ignition point of other flammable liquids.

A regular dry chemical extinguisher might knock down the flames briefly, but it does not cool the oil sufficiently. 

The oil can remain hot enough to reignite on its own a moment later.

This is essentially a ticking time bomb of fire. 

Also, dry chemical agents (like monoammonium phosphate powders) can form a crust on top of the oil that looks like it’s out, while underneath the oil is still burning or hot. 

When that crust is disturbed or if heat builds up again, the fire can flash back. 

Because they lack the cooling and smothering foam effect, normal Class B/C extinguishers often fail to prevent re-ignition of grease fires.

Co₂ (Carbon Dioxide) Extinguishers Aren’t Suitable

A CO₂ extinguisher fights fire by flooding the area with carbon dioxide to displace oxygen and cool the flames. 

However, with a Class K fire, CO₂ will only cool the surface of the oil while the deeper oil remains extremely hot. 

Once the CO₂ gas dissipates, the oxygen returns and the still-hot oil can reignite itself. 

Moreover, the high-pressure discharge from a CO₂ extinguisher can splatter the burning oil around, potentially spreading the fire to new areas. 

Thus, CO₂ might temporarily appear to put out a grease fire, but the fire is very likely to come roaring back.

How to Use a K Class Fire Extinguisher

how to use k class fire extinguisher

If a cooking oil fire breaks out and it’s safe for you to attempt extinguishing it, you should follow proper steps to use the Class K fire extinguisher. 

Using this extinguisher is similar to using any portable extinguisher, but there are a few additional considerations for grease fires. 

Always remember the acronym PASS:

  • Pull
  • Aim
  • Squeeze
  • Sweep

This acronym outlines the basic steps for knowing how to use a fire extinguisher:

  • Pull the safety pin out of the extinguisher’s handle. This pin prevents accidental discharge; pulling it will unlock the handle.
  • Aim the nozzle or hose at the base of the fire, not at the flames. In a grease fire, that means aim where the oil is burning (the surface of the oil). You want to hit the burning oil directly with the extinguishing agent.
  • Squeeze the handle slowly and evenly. This will start the flow of the wet chemical agent. Class K extinguishers are typically designed to discharge in a controlled, gentle spray to avoid splashing the oil.
  • Sweep the nozzle from side to side across the base of the fire while continuing to aim at the oil. Cover the entire area that’s on fire with the mist, and keep spraying until the flames are completely out.

Keeping Safe

While performing these steps, maintain a safe distance. 

It’s recommended to start about 8 to 10 feet (roughly 3 metres) back from the fire and move forward carefully as the flames subside. 

Holding the extinguisher upright, direct the spray low and evenly over the burning oil. 

The wet chemical will create a foamy layer as it contacts the hot grease. 

Make sure to coat the whole surface of the burning oil with this foam. 

This ensures that the fire is fully smothered and cooled. 

Class K extinguishers are engineered to discharge at a lower pressure than other types precisely to avoid splattering the burning oil. 

However, a steady hand control is important to keep the spray directed where it’s needed.

As you fight the fire with the extinguisher, avoid getting too close to splattering grease and never attempt to carry a burning pan outside.

Let the extinguisher do the work of dousing the flames. 

Keep discharging the agent until you’re absolutely sure the fire is out. 

After Extinguishing the Fire

After the flames appear to be extinguished, watch the area closely for a minute or two in case of re-ignition. 

The wet chemical foam should prevent the oil from reigniting, but it’s wise to be vigilant. 

Once everything is under control, ventilate the area if possible. 

Remember to call the fire brigade or emergency services if the fire was significant or if there’s any doubt it might flare up again. 

Also, any used extinguisher will need to be recharged or replaced promptly.

Suppression Systems

If the kitchen has an automatic hood fire suppression system, activate that first or ensure it has activated before using the portable extinguisher. 

The hood system will release its own suppressing agent and often shut off the heat source to the cooking equipment. 

This reduces the intensity of the fire and prevents new fuel from feeding it, making it safer and more effective when you follow up with the handheld Class K extinguisher.

Where are K Class Fire Extinguishers Usually Found?

where k class fire extinguisher found

Class K fire extinguishers are typically found anywhere there is a significant risk of cooking oil or grease fires. 

This means they are most often located in commercial and institutional kitchens. 

These are some of the common places you’ll see Class K extinguishers installed and ready for use:

Restaurant and Café Kitchens

Restaurants, diners, cafeterias, and coffee shops with kitchens all contain cooking appliances that use oil or grease. 

Class K extinguishers are normally required in these kitchens, often positioned near deep fryers or grill areas.

Hotel and Catering Kitchens

Hotel restaurants, banquet hall kitchens, and catering companies prepare food on a large scale and usually have multiple high-temperature cooking stations. 

These sites will have Class K units handy in the cooking areas to address any fryer or skillet fires.

Food Trucks and Mobile Kitchens

Food trucks, street food stalls, and mobile catering vans often operate with compact deep fryers or woks in a tight space. 

A Class K extinguisher is crucial in these environments due to the elevated risk of grease fires in a confined area.

Institutional and Cafeteria Kitchens

Large kitchens in schools, universities, healthcare buildings, nursing homes, prisons, and other institutions commonly cook for many people using industrial-sized equipment. 

These facilities will have Class K extinguishers in the galley or kitchen area to meet fire codes and protect occupants.

Bakeries and Other Food Prep Facilities

Bakeries, pastry shops, or any food production facility that involves frying or high temperature oils will also keep a Class K extinguisher nearby. 

Any facility with commercial cooking equipment is likely to have one.

Key Takeaways

Class K fire extinguishers play a crucial role in kitchen safety. 

They are uniquely formulated to tackle the high-temperature oil and grease fires that frequently occur in cooking environments.

These are fires that other extinguishers simply cannot deal with safely. 

Statistics show that a large share of fires in restaurants and cafes start in the kitchen, where hot cooking equipment can ignite oils and fats. 

Having a Class K extinguisher on the premises (and knowing how to use it) is therefore an essential safeguard for anyone who operates commercial cooking equipment.

A Class K fire extinguisher is a kitchen’s best defense against one of its most perilous fire hazards, and ensures that a fire doesn’t turn into a tragedy.

How to Prevent E-Bike Fires

E-bikes (electric bikes) have become a popular, eco-friendly way to travel.

But with their popularity comes an unexpected hazard, most notably lithium-ion battery fires.

E-bike fires are often the result of faulty or damaged lithium-ion batteries, incorrect chargers, or exposure to heat, all of which can trigger a dangerous chain reaction leading to a fire caused thermal runaway.

Understanding why these fires happen and how to prevent them is the key to staying safe.

What is an E-Bike?

Woman on Electric Bike
Image credit: Unsplash

An e-bike is a bicycle equipped with an electric motor powered by a rechargeable lithium-ion battery.

The motor assists the rider’s pedaling, making it easier to climb hills or travel longer distances.

E-bikes come in several types, from lightweight commuter models to powerful cargo bikes.

All types of e-bikes depend on one crucial component – the battery.

Lithium-ion batteries store large amounts of energy in a compact form, making them ideal for e-bikes.

However, this same energy density means that if the battery is damaged, poorly made, or improperly charged, it can overheat and even combust.

That’s where the serious risk of fire comes in.

Can E-Bikes Catch Fire?

Yes, e-bikes can catch fire, and almost always the culprit is the lithium-ion battery.

When the battery’s internal components are damaged or defective, they can short-circuit.

This causes the battery to heat up uncontrollably, a process known as thermal runaway.

Once this starts, it can ignite nearby cells, creating a fast-spreading and extremely hot fire.

Common triggers include:

  • Using an incorrect or low-quality charger.
  • Charging for long periods or overnight.
  • Physical damage to the battery.
  • Exposure to extreme heat or moisture.
  • Poor-quality or counterfeit battery packs.

While most e-bikes are safe when properly used, even one faulty component can lead to disaster.

How Often Do E-Bike Fires Happen?

Burning E-Bike

E-bike fires are still relatively rare compared to other household fires, but they’re increasing as e-bike ownership grows.

In cities like New York, London, and Sydney, fire departments have reported hundreds of e-bike and e-scooter battery fires in recent years, of which many were caused by unregulated or aftermarket batteries.

Interestingly, most incidents occur in homes or garages whilst the batteries are charging.

Because lithium-ion fires burn at extremely high temperatures and can reignite even after being extinguished, they pose a serious risk to both people and property.

Are E-Bike Fires Dangerous?

Yes, e-bike fires can be potential y very dangerous.

E-bike fires burn hotter and faster than typical household fires, releasing toxic fumes and dense smoke.

Since the reaction is chemical rather than just thermal, traditional extinguishing methods such as water are often ineffective, and can even make the situation worse.

For example, lithium-ion fires can:

  • Reach temperatures above 1,000°F (540°C).
  • Spread rapidly to furniture and other flammable materials.
  • Reignite after appearing to be out.
  • Produce toxic gases like hydrogen fluoride.

That’s why prevention and early detection are critical when it comes to e-bike fire safety.

Can I Prevent an E-Bike Catching Fire?

Yes, but prevention firstly starts with awareness.

Most e-bike fires can be avoided by following safe charging, storage, and maintenance practices.

Choosing certified products, using the correct charging equipment, and handling batteries with care can dramatically reduce your risk.

Let’s break down the essential steps.

How to Prevent E-Bike Fires

Charging E-Bike
Image credit: Bicycling

Buy from Reputable Sellers

Always purchase your e-bike and replacement batteries from trusted brands or authorized dealers.

Look for batteries certified by UL (Underwriters Laboratories) or similar safety standards.

Cheap, unverified batteries often lack internal safeguards like temperature control and overcharge protection.

Use Correct Charging Equipment

Only use the charger that came with your e-bike or one recommended by the manufacturer.

Mixing chargers, cables, or adapters (even if they seemingly fit) can result in incorrect voltage or current, damaging the battery and increasing fire risk.

Never charge your e-bike unattended or overnight.

If something goes wrong while you’re asleep, you may not notice until it’s too late.

Keep Away from Direct Heat Sources

Store and charge your e-bike in a cool, dry, well-ventilated area.

Avoid placing it near heaters, radiators, stoves, or direct sunlight.

Lithium-ion batteries perform best at room temperature.

Extreme heat accelerates chemical reactions inside the cells, raising the risk of thermal runaway.

Keep Away from Flammable Materials

Avoid charging or storing your e-bike near curtains, paper, furniture, or fuel containers.

If a fire starts, these materials can cause it to spread rapidly.

Ideally, charge the bike on a non-flammable surface, such as concrete or tile, rather than wood or carpet.

Avoid Aftermarket Batteries

Aftermarket or modified batteries are a leading cause of e-bike fires.

These may not meet the same safety standards as the originally supplied battery and could have poor internal construction or incompatible components.

Always use original or certified replacements.

What Should I Do If My E-Bike Catches Fire?

If you suspect your e-bike or battery is overheating, such as emitting smoke, hissing, or swelling, you must move to a safe distance immediately and call emergency services.

Do not try to handle or move the bike.

If it’s safe to do so, evacuate the area and close doors behind you to contain the fire.

Do not pour water directly on a lithium-ion fire.

Instead, use a Class D or lithium-ion-rated fire extinguisher if one is available.

Afterward, do not attempt to reuse or repair the damaged battery.

Have it disposed of properly using an authorized recycling program.

Key Takeaways

E-bike fires are serious but largely preventable.

The key is understanding that lithium-ion batteries require careful handling:

  • Always buy certified e-bikes and chargers.
  • Charge in a safe, well-ventilated area.
  • Keep batteries away from heat and flammable objects.
  • Never use damaged or non-original batteries.
  • Stay alert for warning signs like swelling or overheating.

By taking these precautions, you can enjoy all the benefits of electric cycling without putting your safety at risk.

Conclusion

E-bike fires occur mostly due to faulty lithium-ion batteries, poor charging habits, or damaged components.

Prevention comes down to buying quality products, following manufacturer guidelines, and staying vigilant during charging and storage.

Safe habits save lives, so your e-bike should be a tool for freedom – not a fire hazard.

Minimax extends methanol-ready fire protection for marine bilge applications

Minimax targets methanol engine room risks

Minimax has adapted its Minifog marine XP high-pressure water mist extinguishing system for methanol-fuelled ship engines, with a focus on bilge fire risks in engine rooms.

The company announced the further development from Bad Oldesloe on 2 December 2025.

According to Minimax, the system can now be applied to both pure methanol engines and dual-fuel propulsion arrangements.

The bilge area beneath engine room machinery is identified as a location where flammable liquids can collect and create rapid fire spread.

Minimax states that the updated Minifog marine XP configuration is intended to address new requirements for bilge protection when methanol is used as a marine fuel.

Testing Minifog marine XP against methanol fires

Minimax reports that the methanol-focused version of Minifog marine XP has undergone testing at the company’s in-house fire research centre.

The manufacturer carried out guideline-compliant trials using a standardised replica of an engine room space with methanol fuel present.

Various nozzle configurations were evaluated to understand their performance when controlling and extinguishing real methanol pool fires.

Each test used a 30-second pre-burn period followed by a requirement to extinguish the fire completely within 15 minutes.

Minimax states that the fire tests followed International Maritime Organization (IMO) circular MSC.1/Circ. 1165 for high-pressure water mist systems.

The effectiveness of the Minifog marine XP configuration against methanol fires has been confirmed by Lloyd’s Register, according to the company.

According to Minimax, methanol is considered a future marine fuel option because it produces fewer emissions than diesel or heavy fuel oil.

From a fire protection perspective, the company notes that methanol burns with an almost invisible flame, produces no smoke and has a low flash point that can support rapid fire development.

Foam-based fire protection for bilge areas

Minifog marine XP for methanol applications is supplied with an associated fluorine-free foam concentrate for use in machinery space and bilge protection.

Minimax states that this foam concentrate is less harmful to the environment and aligned with current regulatory expectations on fluorinated substances.

Otto Stoehr, Foam Project Manager, Minimax Fire Solutions International GmbH, linked the system design to the company’s global support capability.

Otto Stoehr, Foam Project Manager, Minimax Fire Solutions International GmbH, said: “Minimax Minifog marine XP fights methanol fires safely and completely.

“In combination with our global service network, you can rely on reliable, sustainable, and high-quality fire protection from the market leader.”

Mathias-Christian Herrmann, Head of Competence Center Marine, Minimax Fire Solutions International GmbH, highlighted the emphasis on performance under regulatory test conditions.

Mathias-Christian Herrmann, Head of Competence Center Marine, Minimax Fire Solutions International GmbH, explained: “Our customers need solutions that work in an emergency case.

“That’s why we test according to international regulations and even go a step further with our systems.

“Research and development are part of our DNA.”

Dr Matthias Prall, Extinguishing System Manager, Minimax GmbH, focused on the behaviour of foam when applied to methanol fires.

Dr Matthias Prall, Extinguishing System Manager, Minimax GmbH, said: “The quality of the foam is crucial.

“In previous tests, we were able to show that water mist is not effective for extinguishing fires in this case.

“We need to form a blanket of foam on the burning material that covers it and then separates it from the oxygen in the air.

“The foam must be able to withstand the aggressive medium.

“Our system has been tested and proven to do this reliably.”

Minimax states that the validated performance of Minifog marine XP in these tests supports its use for bilge protection on methanol engine and dual-fuel ships.

Implications for methanol marine engine safety planning

Methanol-ready high-pressure water mist systems with confirmed performance in bilge areas are directly relevant for marine and shipping fire officers responsible for engine room risk control.

The detailed test procedure, including pre-burn duration and extinguishing time, provides technical context for fire engineering consultants and mechanical and electrical engineers evaluating methanol machinery space solutions.

Information on compliance with International Maritime Organization circular MSC.1/Circ. 1165 gives standards and certification bodies, including organisations in roles similar to Lloyd’s Register, a reference point when reviewing methanol-capable systems.

The use of fluorine-free foam concentrate in Minifog marine XP may inform decisions by equipment specifiers, fire-protection contractors and system installers working on bilge protection for methanol and dual-fuel engines.

By outlining how Minifog marine XP is configured for methanol engines and bilge areas, Minimax provides data for risk assessors and facility managers in marine operations considering future fuel choices and associated fire protection measures.

OroraTech GENA-OT nanosatellite links wildfire detection expertise with shared research access

OroraTech launches GENA-OT nanosatellite platform

OroraTech, a Munich-based space company that operates satellite-based wildfire detection systems using thermal infrared sensors, has launched its GENA-OT nanosatellite as a shared scientific platform in low Earth orbit.

The 16U CubeSat mission is the first flight of the company’s GEneric flexible NAnosatellite (GENA) platform and carries multiple research payloads for partners including the Universität der Bundeswehr Munich.

The mission lifted off on 1 December 2025 on SpaceX’s Transporter-15 rideshare flight from Vandenberg Space Force Base under a European Space Agency (ESA) General Support Technology Programme project.

According to OroraTech, GENA-OT was developed within ESA’s General Support Technology Programme with funding from the German Space Agency at DLR.

The company stated that the platform is designed as a standardised modular bus so scientific customers can reach orbit without building complete satellites.

OroraTech positions the GENA family as the basis for future missions that can host both wildfire-focused thermal payloads and other experimental instruments in sun-synchronous orbit.

Shared GENA-OT platform for scientific payloads

OroraTech reported that GENA-OT carries several payloads from academic and research institutions.

One of the headline payloads is the relaunch of the ICARUS satellite-based animal tracking system from the Max Planck Institute, which has been on hold since 2022.

Other payloads include technology demonstrators from the Universität der Bundeswehr Munich SeRANIS Mission and contributions from the Munich Center for Space Communications.

The platform allows these programmes to conduct scientific experimentation and technology validation in orbit using a common spacecraft rather than separate missions.

OroraTech explained that GENA-OT uses standard experimental modules and interfaces to shorten lead times to orbit for new payloads.

The company added that the shared bus is intended to lower cost per experiment for universities, startups and research institutions that need in-orbit testing.

By using the same nanosatellite expertise that underpins its dedicated wildfire detection satellites, OroraTech aims to support both environmental monitoring and wider scientific use cases on related hardware.

European partners back responsive space infrastructure

Professor Andreas Knopp, Universität der Bundeswehr Munich, said: “GENA-OT demonstrates the future of satellite development, one that combines speed, modularity, and innovation.

“Within an unprecedented timeframe, we implemented several innovative payloads built by the university and other startups.

“This project showcases how academia and commercial partners can rapidly meet the needs of the New Space economy.”

Dr Martin Langer, Chief Executive Officer and Chief Technology Officer at OroraTech, said the mission illustrates how commercial satellite buses can support public objectives, including space-based wildfire services.

Dr Martin Langer, Chief Executive Officer and Chief Technology Officer at OroraTech, said: “This mission shows how commercial platforms can power public benefit.

“GENA-OT is the result of a public-private partnership that delivered spaceflight-ready hardware in record time.

“We believe in turning data into action, and this satellite proves that infrastructure can be fast, flexible, and ready for tomorrow’s missions.”

Dr Shahin Kazeminejad, Head of the General Support Technology Programme at DLR Space Agency, highlighted the role of European funding in the project.

Dr Shahin Kazeminejad, Head of the General Support Technology Programme at DLR Space Agency, said: “This mission reflects the German Space Agency’s and ESA’s commitment to supporting scalable platforms for in-orbit demonstration and validation.

“GENA-OT is the first purely German mission to be funded under the GSTP Element 3 ‘FLY’, and is a great example of how smart public investment and industrial innovation can work together to advance European space capabilities and enable new business opportunities for companies.”

OroraTech stated that standard commercial platforms such as GENA-OT can help governments and institutions shorten mission schedules and reduce the cost of access to orbit.

The company views the mission as aligned with national and European plans for sovereign responsive space infrastructure that can carry wildfire monitoring sensors as well as broader research payloads.

Relevance of OroraTech’s GENA-OT mission for wildfire and safety planning

OroraTech already operates thermal infrared payloads and dedicated satellites that provide near-real-time wildfire detection, burnt area mapping and fire spread intelligence to public and private customers.

The GENA-OT mission shows how a standardised nanosatellite bus can host both research instruments and sensors relevant to wildfire intelligence, using similar hardware and processing approaches.

Emergency and disaster response managers who rely on satellite-derived fire alerts can treat GENA-OT as an example of how new sensors might be brought into orbit more quickly using shared platforms.

Government departments and standards bodies involved in commissioning or regulating space-based wildfire services can see how ESA and the German Space Agency are using the General Support Technology Programme to derisk new payloads before larger operational constellations are deployed.

Fire and rescue chiefs, civil protection agencies, forestry operators and infrastructure asset owners who already use OroraTech wildfire products may encounter future services that depend on technology first exercised on missions like GENA-OT, including improved thermal imagers, on-orbit AI processing and expanded global coverage.

Blackline marks fourth appearance in Deloitte Technology Fast 500 listing

Blackline recognised in 2025 Fast 500

Blackline Safety has been named to the 2025 Deloitte Technology Fast 500 list of high growth North American technology companies, according to the company.

The recognition marks Blackline Safety’s fourth appearance on the Fast 500 after listings in 2018, 2020 and 2021.

The Calgary, Canada based connected safety technology firm is one of 114 Canadian companies included in the 2025 ranking.

It is also one of eight companies from Alberta to be recognised this year.

The Deloitte Technology Fast 500, now in its 31st year, ranks technology companies in North America based on revenue growth.

Blackline Safety stated that the 2025 listing reflects continued momentum for its connected safety portfolio.

Blackline growth linked to connected safety demand

Blackline Safety said the company’s latest Fast 500 placement is tied to increasing expectations from customers for connected safety solutions.

Cody Slater, CEO and Chair, Blackline Safety, said: “This recognition, and our continued growth, reflects the rising expectations among our customers worldwide for connected safety solutions.

“Our success is driven by a relentless focus on delivering technology that keeps workers connected and protected in real time, helping to ensure every worker gets home to their loved ones.”

According to the company, its portfolio combines software services with connected gas detectors, lone worker devices and area monitors.

Blackline Safety stated that these products are designed to keep workers in constant contact with monitoring centres.

The firm added that real time connectivity can support faster awareness of hazardous conditions.

EXO 8 area monitor receives multiple awards

Blackline Safety reported that its placement on the 2025 Fast 500 follows a year of wider product recognition.

The company’s EXO 8 area monitor received eight industry awards in 2025.

According to Blackline Safety, the awards recognised the EXO 8 for innovation and ease of use.

The monitor was also cited for its ability to change how organisations detect and respond to hidden hazards.

The company stated that EXO 8 is part of a connected safety approach that links area monitoring with personal devices and software services.

Blackline Safety added that this approach is intended to improve visibility of gas hazards across sites.

Canadian growth rankings highlight ongoing expansion

Blackline Safety noted that its 2025 Fast 500 listing follows further recognition in Canadian business rankings.

Earlier in 2025, the company was named to the Globe and Mail’s Top Growing Companies list for the seventh consecutive year.

Blackline Safety said the recurring inclusion shows sustained revenue growth over multiple years.

The firm added that its ongoing expansion is supported by a focus on connected safety technology.

According to the company, the combined impact of regional and North American rankings reflects continued demand for its products and services.

Operational relevance of Blackline’s growth for safety decision makers

Procurement officers responsible for connected gas detection, lone worker protection and area monitoring may view Blackline Safety’s repeated appearance in the Deloitte Technology Fast 500 as evidence of sustained commercial growth.

This kind of revenue performance can provide an indication that a vendor’s connected safety products are being adopted across multiple sectors in North America.

For fire safety officers, industrial facility managers and risk assessors, the highlighted role of the EXO 8 area monitor in eight separate awards points to industry recognition of area monitoring platforms that combine ease of use with detection of hidden gas hazards.

The company’s continued presence on the Globe and Mail’s Top Growing Companies list may also be relevant for organisations evaluating long term support when considering multi year deployments of connected gas detectors, lone worker devices and area monitors.

Fire engineering consultants and system installers working on integrated safety solutions can use this information when assessing which connected safety ecosystems have both market traction and a growing customer base.

How Oshkosh is shaping aircraft rescue operations at Guadalajara Airport

New Striker 6×6 ordered for Guadalajara to enhance airport rescue

Oshkosh Airport Products has announced that Guadalajara International Airport in Mexico has ordered a new Striker 6×6 aircraft rescue and firefighting vehicle scheduled for delivery in December 2025 to join its existing Oshkosh ARFF fleet.

According to the company, the order continues a relationship that began when Guadalajara International Airport acquired its first Oshkosh aircraft rescue and firefighting vehicle in 2002.

The airport now operates a fleet that includes a Striker 6×6 with a Snozzle High Reach Extendable Turret, a Striker 4×4, a Striker 4×4 with a Snozzle HRET and a Striker 6×6.

Oshkosh Airport Products stated that Guadalajara International Airport selected the new Striker 6×6 based on vehicle reliability, the technology package and local dealer support from Autobuses Especializados S.A. de C.V. (ATEPSA).

Robert Colon, Associate Manager International Sales at Oshkosh Airport Products, said: “Operational safety and uninterrupted service are essential for an airport connecting millions of passengers across Mexico and beyond.

“The new Striker 6×6 ensures Guadalajara is prepared to respond to complex emergencies across its airport grounds and surrounding terrain.

“We are proud to continue supporting this airport with vehicles embodying reliability, performance, and innovation.”

Aircraft rescue capabilities at Guadalajara Airport

Oshkosh Airport Products reported that the new Striker 6×6 aircraft rescue and firefighting vehicle will integrate with Guadalajara International Airport’s fully Oshkosh-equipped ARFF fleet.

The company highlighted that the airport’s decision to standardise on the Striker platform supports operational familiarity for crews and maintenance teams.

According to Oshkosh Airport Products, the vehicle order reflects Guadalajara International Airport’s focus on maintaining readiness for complex incidents on the airfield and in surrounding areas.

Delivery of the Striker 6×6 is scheduled for December 2025, with on-site commissioning at Guadalajara International Airport.

Oshkosh Airport Products explained that its International Field Service Representatives will provide operator training as part of the commissioning programme.

Striker 6×6 specifications and delivery schedule

Oshkosh Airport Products stated that the Striker 6×6 for Guadalajara International Airport will be powered by a Scania DC16 engine rated at 670 HP to provide the required performance for aircraft rescue operations.

The company added that a hydraulic 10 kW electric generator will supply power for mission-critical systems without reliance on external sources.

According to Oshkosh Airport Products, the vehicle will feature an Oshkosh Eco-EFP foam system designed for precise and environmentally focused foam measurement and delivery.

The Striker 6×6 will include two preconnected handlines regulated for flexible firefighting operations on and around the airfield.

Low attack bumper and roof turrets, each rated at 1,250 GPM and including a Hydrochem nozzle on the bumper turret, will support high flow firefighting capability.

The vehicle will also carry a dual agent hose reel and an air hose reel mounted inside a compartment to protect equipment and simplify access.

An electric cord reel will provide extended reach for powered tools and accessories during incidents.

Local dealer ATEPSA provides ongoing support

Oshkosh Airport Products noted that ATEPSA has represented the brand in Mexico for more than 20 years.

The company said ATEPSA’s role includes sales support, service and spare parts provision for Guadalajara International Airport’s Striker fleet.

Eduardo Palacio Hasson, General Manager/President of ATEPSA, said: “ATEPSA has proudly represented Oshkosh in Mexico for over two decades, and we are thrilled to support Guadalajara International Airport with this new Striker ARFF.

“Our close proximity to the airport and expanded service facilities in Guadalajara ensure we can deliver the immediate support and spare parts necessary to keep these vehicles mission ready.”

Operational relevance for airport rescue planners

The order of a new Striker 6×6 aircraft rescue and firefighting vehicle for Guadalajara International Airport provides a current example of how major airports are renewing and standardising ARFF fleets.

For airport and mass transit facility managers, the focus on a fully Oshkosh-equipped fleet at Guadalajara International Airport shows how a common platform can be used to manage training, maintenance and response planning across multiple vehicle types.

For procurement officers and equipment specifiers, the detailed configuration of the Striker 6×6, including the Eco-EFP foam system, Scania DC16 670 HP engine and 1,250 GPM bumper and roof turrets, illustrates the performance and environmental criteria being applied to new ARFF vehicles.

Training officers and instructors may note the inclusion of on-site commissioning and operator training by Oshkosh Airport Products’ International Field Service Representatives as part of the delivery package.

For fire engineering consultants and risk assessors working with airports, the presence of dual agent capability, regulated handlines and onboard power generation demonstrates how vehicle specifications are being aligned with complex fire scenarios on runways, taxiways and surrounding terrain.

Rethinking detection for complex storage environments: Patol sets out the future of warehouse safety

Patol Managing Director Iain Cumner explains how advanced detection solutions improve warehouse safety, compliance, and performance across automated, high-bay environments

Warehousing is changing.

Facilities today are taller, denser, and increasingly automated – designed to support the pace of modern 24/7 supply chains.

For site and facilities managers, the stakes are high.

Delays in fire detection don’t just mean lost stock – they put staff at risk, halt operations, and can damage hard-won reputations.

Let’s face it – cost continues to drive fire detection decisions.

But with UK insurers and regulators raising the bar on compliance, including BS 5839-1, the right solution now matters more than ever.

The challenges of modern warehousing height & stratification

In high-rack warehouses, there are specific areas that make conventional detectors less effective:

  • Height & smoke layering: In tall warehouses, smoke can form layers (known as stratification) rather than rising to ceiling-mounted detectors, delaying alarms.
  • Air movement: Ventilation, fans, or conveyor systems can push smoke away from detectors, while dense racking and tight packing of stock can prevent smoke reaching detectors.
  • Access issues: In high racks or automated storage systems, installing and maintaining detectors is expensive and disruptive.
  • Special environments: Cold storage, dusty sites, and humidity add further complications – from frozen detectors to false alarms.
  • Even subtle fluctuations in temperature can interfere with detectors.
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The result? Increased downtime, costly false activations, and risk of non-compliance.

These factors make one thing clear: conventional approaches to fire detection are unable to keep up with the demands of modern warehouses.

Modern Detection Technologies

Aspirating Smoke Detection (ASD)

Once considered unsuitable for dusty or industrial environments, ASDs have evolved to be ultra-sensitive and are now considered to be far more suitable for application that traditional point detection:

  • Continuously samples air through a network of pipes, providing very early smoke detection.
  • Modern systems now feature in-line blow-out filters and dust purge technology, addressing the false alarm problems that gave aspirators a poor reputation in the past.

Benefit for managers: Fewer false alarms, less maintenance, and earlier warnings – giving more time to act without disrupting daily operations.

Linear Heat Detection (LHD)

LHD offers a straightforward, yet effective solution:

  • Uses heat-sensitive cable that triggers when a set temperature is reached.
  • Ideal for racking aisles, conveyor belts, and hard-to-reach areas.

Benefit for managers: Works reliably regardless of airflow, reducing the risk of delayed detection and avoiding costly downtime.

Together, LHD and ASD complement each other, offering detection solutions that adapt to the requirements of today’s warehousing rather than forcing the environment to adapt to the technology.

Expert Insight

Patol’s Managing Director, Iain Cumner, highlights that the conversation around warehouse fire protection has shifted dramatically in recent years: “The days of exclusively relying on ceiling-mounted point detectors in warehouses are over.

With facilities now exceeding 20 metres in height, filled with dense racking, and incorporating complex automation, we need detection solutions that can ‘think differently’.

“Linear Heat Detection and Aspirating Smoke Detection are not just technologies.

“They’re enablers of safer, more resilient facilities. But the key is expertise.

“It’s about matching the right product to the right environment, and designing systems that balance compliance with practicality.”

This people-first, consultative approach is at the heart of Patol’s value proposition.

Trusted fire detection solutions are not just about products but about ensuring safety and continuity for people, businesses, and communities.

Practical advice for consultants and specifiers

When planning or upgrading fire detection in warehouses, keep these points in mind:

  1. Think in zones: Break large spaces into detection zones to quickly identify where a fire starts and limit unnecessary disruption.
  2. Match the tech to the risk: Use LHD for conveyors and racking; ASD for high-value stock or areas where early detection is essential.
  3. Plan maintenance early: Choose designs that allow servicing without major operational downtime.
  4. Work with experts: Engage with fire detection specialists early in the design stage to ensure compliance with BS 5839-1, BS EN54-22 and BS EN54-28 and alignment with insurer requirements.

What is the future of warehouse fire detection?

Automation, robotics, and AI-driven logistics will demand fire protection strategies that are adaptive and intelligent.

We will see more integration between detection and smart building management systems, enabling real-time analytics and predictive maintenance.

Hybrid systems that combine LHD, ASD, and intelligent control will become standard, providing a layered approach to protection.

At the same time, the emphasis on sustainability will grow – with detection systems designed to reduce energy use, minimise maintenance visits, and extend equipment lifespan.

Yet the core principle remains the same: protecting people.

Warehouses are workplaces as much as they are storage facilities.

Fire safety is about safeguarding employees, first responders, and the communities that rely on these essential buildings.

Fire safety in warehouses is about more than technology – it’s about confidence.

Confidence that your site is protected.

Confidence that operations won’t be disrupted by false alarms.

Confidence that your system meets both UK standards and insurer expectations.

Throughout this transition, Patol’s role is to delivers trusted fire detection solutions for challenging environments, combining technical expertise, responsive service, and a people-first approach.

With certified products, rapid dispatch, and ongoing consultancy, we help facilities managers achieve not only compliance but also the peace of mind that comes from knowing both people and assets are safe.

Case Study: Protecting Portcentric Logistics, Felixstowe

At the Port of Felixstowe, PD Portcentric Logistics operates one of the UK’s largest customs-approved warehousing facilities, storing a wide range of goods from fast-moving consumer products to ambient foodstuffs.

With three high-bay warehouses and racking exceeding 20 metres, ensuring reliable fire detection was a significant challenge.

Patol supplied 24 ASD units, installed by BBC Fire Protection (part of Marlowe plc), to provide comprehensive coverage across the site.

A mix of compact and two-channel detectors ensured every zone, from small ambient storage areas to large high-level bays was effectively protected.

By locating the ASD sampling points at accessible low levels, the system offered fast, reliable detection without disrupting operations.

The design also reduced maintenance complexity and downtime, as detectors could be serviced without specialist access equipment.

For the site’s management team, the result was clear: enhanced protection, simpler compliance, and complete peace of mind that both people and products are safeguarded around the clock.

This case demonstrates how modern detection, applied with expertise, can overcome problems that traditional systems would fail to address.

This was originally published in the November 2025 Edition of International Fire & Safety Journal. To read your FREE copy, click here.