Lithium-ion battery fires: Why prevention alone is no longer enough

by Breaking NewsFire DetectionFire SuppressionFire SuppressionFirefighting EquipmentIncidentsResearch

As lithium-ion battery fires become more frequent, Juho Toukola, CSO of Latauspolku Oy, examines why fire safety strategies must move beyond prevention and address the consequences of thermal runaway

Lithium-ion batteries are everywhere. They power e-bike commutes, cordless tools on every construction site and robot mowers in groundskeeping fleets. Their numbers grow every year and so do the number of fires they cause. In January 2026, a DSV logistics terminal in Poland burned to the ground.

In Finland, a country of roughly 5.7 million people, two battery fires made national news within this spring. In Oulu in April 2026, a family of two adults and four children were forced to evacuate their home and were subsequently hospitalised, while neighbouring apartments suffered smoke damage.

In Espoo in May 2026, a tenant noticed an e-scooter battery beginning to overheat and did exactly what every safety guideline instructs: he moved to take it away from everything else. It exploded in his face and the fire spread to an e-bike battery beside it.

Apartment destroyed, building and other apartments suffered massive smoke damages. These are not exotic events anymore. More batteries mean more failures and a failing lithium-ion battery is unlike anything else in our buildings and workplaces. Once thermal runaway begins, there is no practical way for an ordinary person to put it out.

What happens when a lithium-ion battery fails

Thermal runaway is a self-accelerating chain reaction inside the battery cell. Heat generates more heat, cell by cell and the battery becomes its own fuel and its own oxygen source. This is why a battery fire behaves so differently from a bin fire. It reignites.

It ejects burning material. Cells can rupture violently, turning the battery into a source of projectiles as the Espoo tenant learned at close range. The fire itself is only part of the danger.

A burning lithium-ion battery releases a cocktail of toxic gases, most notably hydrogen fluoride. It is dangerous even at low concentrations. In large quantities it penetrates skin and tissue, but even in the light smoke we see before visible ignition it attacks the lungs and can cause severe injury to people who never see a flame. The Oulu family were hospitalised not because flames reached them, but because smoke and gas did. This combination of unstoppable fire, violent failure and toxic gas is what makes the lithium-ion problem categorically different from the fire risks our buildings were designed for.

Three pillars of lithium-ion battery fire safety, two of which fail at the critical moment

Society currently governs this risk with three tools: guidelines, restrictions and technology. It is worth being honest about what each one can and cannot do.

Guidelines are genuinely valuable. Charge with the original charger, inspect batteries for damage, do not charge unattended, do not charge near exits. Followed properly, they greatly reduce the already small probability of a fire.

But probability reduction is all they do. Guidelines do not stop thermal runaway once it begins and they quietly assume a level of supervision that does not exist in real life. The standard instruction to “supervise charging” asks a resident to watch a battery for seven hours or a logistics operator to assign a human to every charging shelf.

Nobody does this. Everybody knows nobody does this. And as Espoo showed, even the person who notices the problem early and follows the guidance to the letter can end up in the path of the failure. Restrictions are the newer instrument and they deserve more scrutiny than they get.

Housing companies and facility operators across Europe are responding to the risk by banning e-bike and e-scooter charging indoors. On paper, the risk disappears. In practice, it goes underground.

People do not stop charging the device they depend on for their commute. They charge it in their apartment, behind a closed door, where no policy reaches and no detection exists. A prohibited risk that everyone quietly takes is not a managed risk.

It is a denied one and it surfaces exactly the way the Espoo and Oulu fires did: inside homes, where people live and sleep.

A wild west of lithium-ion battery fires solutions

Walk through any fire safety exhibition and you will find an expanding catalogue of products marketed against battery fires. Many of them solve a fraction of the problem and leave the rest untouched.

Fire pouches, blankets and battery tarps can be useful for small consumer cells, but an e-mobility battery pack in full thermal runaway generates enough sustained energy to defeat most of them in seconds rather than contain them for minutes.

Specialised battery extinguishers exist but using one effectively means approaching a device that is ejecting flame, gas and potentially projectiles. For a trained responder in protective equipment with self-contained breathing apparatus, that is workable.

For a resident, a warehouse worker or a night-shift caretaker, in normal clothing it is not a realistic instruction. Passive fireproof cabinets are a step up.

They contain the fire and protect the surrounding space from flame spread. But containment is not suppression. The reaction continues inside and the toxic gases still need somewhere to go.

The effect to people problem remains unsolved. Active suppression systems based on aerosols go further and attempt to interrupt the fire. The difficulty is that aerosols suppress visible flame without reliably stopping the chain reaction underneath it and testing has shown that suppressing the flame while the cells continue venting flammable gas can create explosive conditions. Slowing the reaction is not the same as ending it.

Stop arguing probability. Engineer for consequence of lithium-ion battery fires

The uncomfortable truth is that these fires cannot be prevented. As long as lithium-ion chemistry surrounds us, a small number of failures is a statistical certainty. The meaningful question is not ‘how to reach zero probability’, because we cannot.

It is what happens in the building when the failure occurs. Research within Finland’s national LION project points to a clear answer: water immersion.

UL Solutions issues battery fire prevention advice amid rising household use

by Featured NewsSafety

Lithium-ion battery safety under review

UL Solutions has issued advice on preventing fires linked to rechargeable lithium-ion batteries, calling for greater awareness of thermal runaway and its hazards.

The organisation said these batteries power millions of everyday devices, including phones, laptops, tools and electric bikes, making household exposure widespread.

Thermal runaway is described as a self-heating process that can cause extreme temperatures, smoke, toxic off-gassing or explosions.

UL Solutions stated that understanding and prevention are key to protecting people and property from these risks.

Reported decline in lithium-ion related deaths

According to UL Solutions, data from the Fire Department of the City of New York shows deaths related to lithium-ion battery fires fell from 18 in 2023 to six in 2024.

The company said this reduction demonstrates the potential value of public education and safer charging practices.

It added that rechargeable devices are often scattered across homes, creating multiple potential ignition points.

A recent case in Massachusetts, where a resident suffered a minor burn from an exploding battery, highlighted the dangers of faulty or improperly charged products.

UL Solutions said the incident underlines the importance of using certified batteries and following storage and charging guidance.

Safety guidance from UL Solutions

UL Solutions recommends choosing batteries certified to its standards and looking for the UL Mark.

It also advises using only manufacturer-approved chargers, monitoring devices for signs of overheating or bulging, and calling emergency services immediately if a fire starts.

The organisation noted that lithium-ion fires can release toxic gases and must be handled by professionals.

In a related publication, UL Solutions explained that thermal runaway has also become a critical issue for airline staff and passengers.

Airlines have introduced policies on carrying lithium-ion devices, with Southwest Airlines requiring power banks to be kept visible during flights.

Tracking incidents to improve awareness

UL Solutions continues to track global lithium-ion incidents to understand where risks occur and how to mitigate them.

The company encouraged consumers to check battery certifications using its Product iQ database and to consult the Battery Safety Testing and Certification webpage for further information.

It said that raising awareness and applying good practice at home and while travelling can prevent injuries and reduce fire risk.

Relevance for fire and safety professionals

Lithium-ion battery fires present a growing concern for fire investigators, certification bodies and safety educators managing consumer awareness campaigns.

The reduction in reported fatalities in New York demonstrates that public information and standards-based certification can have measurable safety outcomes.

Guidance from UL Solutions may assist fire departments, facility managers and compliance officers in promoting best practices for charging, storage and equipment approval.

Airline and transport safety regulators may also reference the outlined measures when reviewing carriage policies for portable electronic devices.

EV battery fires response method earns European innovation recognition

by Featured NewsFire Suppression

Cobra response method for EV battery fires recognised in Europe

Cold Cut Systems has received a European innovation award for its Cobra Response Methodology for electric vehicle (EV) battery fires.

The company said the methodology was recognised at the first DIREKTION Awards for Innovation in Disaster Resilience, held during the CERIS Disaster Resilience Days in Athens, Greece.

According to the organisers, the DIREKTION Awards aim to highlight innovative solutions that address capability gaps in disaster resilience and meet the operational needs of first responders.

Cold Cut Systems said the recognition reflects its ongoing work to develop safer, cleaner and more efficient firefighting tactics, particularly for emerging risks such as EV battery fires.

The company thanked the award jury and extended congratulations to other finalists recognised for contributions to European emergency response.

Method designed to interrupt fire propagation

Cold Cut Systems explained that the Cobra Response Methodology provides a tactical way to interrupt fire propagation in EV battery incidents.

It said the approach is based on the Cold Cut Cobra high-pressure cutting extinguisher, combining over two decades of operational firefighting experience.

The company stated that the method tackles key capability gaps in EV battery incidents, including firefighter safety, cooling efficiency, and environmental impact.

It enables external firefighting intervention, allowing responders to pierce a vehicle’s battery casing and cool internally to prevent further propagation.

According to the company, the Cobra system operates at around 60 litres per minute, reducing both water use and toxic runoff compared with conventional suppression tactics.

Cold Cut Systems confirmed that the system is validated through live fire testing, real deployments and collaboration with fire professionals, researchers and civil contingency agencies.

Operational advantages for complex fire incidents

The company said the methodology addresses the growing challenge of managing thermal runaway and fire propagation in lithium-ion battery packs.

Traditional methods, it explained, often require vehicle submersion or large volumes of water over extended periods.

Cold Cut Systems stated that Cobra provides a tactical option where high-voltage components, limited access or structural constraints make conventional suppression difficult.

It added that the method is applicable not only to EV fires but also to residential and confined-space incidents where internal cooling is required.

According to the company, the system’s Technology Readiness Level (TRL) is rated at nine and is already in use by fire services in more than 40 countries.

Innovation rooted in training and tactical evolution

Cold Cut Systems said that while Cobra’s core technology has been used for over 20 years, its adaptation for EV battery fires represents a tactical evolution rather than a new invention.

The company explained that the innovation lies in how the method is applied, combining field data and structured training to support safe and consistent use.

Cold Cut Systems is currently the only organisation offering structured training in cold cutting technology for firefighting.

It said this training ensures crews can correctly apply the methodology under operational conditions, bridging the gap between equipment capability and tactical implementation.

The company stated that ongoing updates to the method integrate real-world experience and research findings from collaborating fire services worldwide.

Supporting firefighter safety and sustainability goals

Cold Cut Systems said the method supports firefighter safety by enabling crews to act from a safer distance.

By applying Cobra through a structure or battery casing, crews can suppress fires earlier and limit exposure, flashover risk and physical strain.

The company added that the method helps reduce environmental impact through lower water consumption, limiting runoff and property damage.

Cold Cut Systems said its ambition is to promote wider adoption of the methodology and foster collaboration among international fire services.

According to the company, the aim is not to promote a single tool but to advance safer, resource-efficient firefighting practices for EV-related and complex incidents.

Relevance for fire and safety professionals

The Cobra Response Methodology for EV battery fires is relevant for fire and rescue services, training organisations and emergency response managers.

It introduces a structured, field-tested approach to suppressing lithium-ion battery fires, an area where many services still lack defined tactics.

The method enables responders to cool battery modules internally and act at a safer distance, reducing the need for full vehicle submersion and limiting environmental impact.

With a Technology Readiness Level of nine and deployment in over 40 countries, the methodology offers a validated option for operational integration and training programmes.

Its structured training component may also inform curriculum design for fire academies and agencies addressing emerging vehicle technology risks.

UK lithium-ion battery fires rise 93% in two years

by Featured NewsResearchSafety

Surge in lithium-ion battery fires linked to e-bikes and EVs

UK fire brigades are now responding to more than three lithium-ion battery fires each day, according to QBE.

QBE reported a 93% increase in lithium-ion battery fires between 2022 and 2024 based on Freedom of Information data collected in March 2025.

The insurance company recorded 1,330 lithium-ion battery fires in 2024, up from 690 in 2022.

London accounts for highest number of battery fires

London Fire Brigade responded to 407 lithium-ion battery fires in 2024, which QBE stated was more than four times the next highest region.

Greater Manchester Fire and Rescue Service reported 100 battery fires in the same year, while West Yorkshire Fire and Rescue Service recorded 94.

According to QBE, London also accounted for 49% of all e-bike fires nationally.

E-bike fires double over two-year period

QBE reported that electric bikes were linked to 362 fire incidents in 2024, doubling from 181 in 2022.

The insurer said e-bikes accounted for 27% of all lithium-ion battery fires in 2024.

Adrian Simmonds, practice leader for property risk solutions at QBE Insurance, said:
“Lithium-ion battery fires continue increasing at a worrying pace.

“These fires burn differently, they take longer to tackle, typically need ten times more water to put out and are often more harmful to the surrounding environment.

“People need to understand the risks and how to deal with them.”

Regulation and public awareness called for by QBE

QBE said more education is needed to ensure the public understands safe charging, use and disposal practices.

Simmonds added:
“While QBE supports the adoption of e-transport, we also call for stricter regulation.

“For instance, the UK should stop the sale of rogue e-bikes and other unregulated devices. This could be done in the Product Regulation and Metrology Bill, which is going through Parliament.

“In the meantime, consumers should purchase e-bikes and e-scooters from reputable companies, so retailers that show they take quality and compliance seriously with a genuine CE mark.

“Raising awareness around safe charging, use and disposal of lithium-ion batteries is critical to keeping people and property safe.”

Residential buildings most affected by battery fires

QBE stated that residential properties were the most common locations for lithium-ion battery fires.

Other frequently recorded settings were outdoor spaces and commercial buildings.

The insurer said fires involving electric scooters rose by 32% between 2022 and 2024, while electric mobility scooter fires rose by 20% during the same period.

Fires involving electric vehicles rose by 77%, reaching 232 incidents in 2024.

According to QBE, although the number of EVs has more than doubled since 2022, the fire risk remains high due to thermal runaway effects.

UK lithium-ion battery fires rise 93% in two years: Summary

UK fire brigades attended 1,330 lithium-ion battery fires in 2024.

This represents a 93% increase from 2022, according to QBE.

The findings are based on data gathered from Freedom of Information requests to UK fire services.

E-bikes were linked to 362 fires in 2024, double the 2022 figure.

London accounted for 31% of total lithium-ion battery fires.

London also accounted for 49% of all e-bike fires.

Electric vehicle fires increased by 77% between 2022 and 2024.

The most common fire locations were residential properties.

QBE urged stronger regulation and public education on battery safety.

It cited thermal runaway as the key fire risk mechanism.

The Product Regulation and Metrology Bill is under parliamentary review.

The Department for Business and Trade launched the Buy Safe, Be Safe campaign in 2024.

QBE recommended specific safety steps for homes and businesses using lithium-ion batteries.

Lithium-ion battery fires increase in NSW, prompting FRNSW warning

by Featured NewsSafety

FRNSW responds to growing number of lithium-ion battery fires

Fire and Rescue NSW (FRNSW) has reported an increase in lithium-ion battery fires, with 25 incidents recorded in 2025 so far.

Since 2 February, firefighters have attended 13 lithium-ion battery-related fires, including four incidents within 12 hours last week.

In one case in Sydney’s southwest, an e-scooter exploded and caught fire, injuring two men—one from flying debris and the other from smoke inhalation.

Firefighters believe the incident was caused by an incorrect charger used with a modified device, two common factors in lithium-ion battery fires.

FRNSW is urging the public to take precautions when charging and using battery-powered devices.

Survey highlights public complacency around lithium-ion battery risks

A NSW Government survey has revealed that while 44% of respondents understand the risks associated with lithium-ion batteries, many still engage in unsafe charging practices.

Findings show that:

  • 73% charge devices while unattended
  • 70% charge batteries near living spaces or exits
  • 64% leave devices plugged in after charging
  • 51% use low-quality chargers or batteries

Additionally, 32% of respondents said they did not know how to implement safety measures, while 29% were unsure.

Authorities are calling for increased public awareness to reduce the risk of fires.

NSW introduces new product safety standards for e-micromobility devices

NSW Fair Trading has implemented new product safety standards to improve the quality of lithium-ion-powered e-bikes, e-scooters, e-skateboards, and hoverboards.

The regulations, which took effect on 1 February, require these vehicles, along with their batteries and chargers, to meet safety compliance standards.

Further measures, including mandatory testing and certification, will come into effect in August 2025, with labelling requirements set for February 2026.

From late February 2025, an information standard will also be introduced to ensure consumers receive safety guidance at the time of purchase.

Retailers and manufacturers must provide this information or face fines of up to $5,500 per breach.

Authorities emphasise safe disposal of lithium-ion batteries

The NSW Environment Protection Authority (EPA) is urging residents to dispose of lithium-ion batteries properly, citing an increase in fires caused by batteries discarded in household waste.

EPA Executive Director Alexandra Geddes said: “Every year, we see fires breaking out in garbage trucks and recycling facilities because people are throwing batteries in household bins. This is not just dangerous – it’s avoidable.”

The EPA advises consumers to take used batteries to designated drop-off points, such as supermarkets and Community Recycling Centres, to prevent fire hazards.

Lithium-ion battery fires increase in NSW, prompting FRNSW warning: Summary

Fire and Rescue NSW has recorded 25 lithium-ion battery fires in 2025, including 13 incidents since 2 February.

An e-scooter fire in Sydney’s southwest resulted in injuries to two men.

Authorities believe the fire was caused by an incorrect charger used with a modified device.

A NSW Government survey found that many residents continue to engage in unsafe charging behaviours, despite awareness of the risks.

In response, NSW Fair Trading has introduced new safety standards for e-micromobility devices, with further regulations set for August 2025 and February 2026.

The NSW EPA has warned against improper battery disposal, linking it to fires in garbage trucks and recycling facilities.

Officials advise the public to follow fire safety guidelines when using lithium-ion-powered devices.

Cambridge councils warn of battery fires in waste collection and recycling

by Featured NewsSafety

Cambridge councils take action to prevent battery fires

As reported by Cambridge City Council, residents in Cambridge and South Cambridgeshire are being urged to avoid disposing of batteries and electronic gadgets in their general waste.

A new campaign, featuring the national waste campaign character Hypnocat, has been launched on the sides of refuse collection lorries to remind people of the dangers of improper disposal.

The campaign comes in response to the rising number of fires caused by hidden lithium-ion batteries in discarded electronics.

In 2024 alone, seven such fires have already occurred in the Greater Cambridge area.

These incidents pose significant risks to waste collection crews, firefighters, and local communities.

The growing risk of lithium-ion battery fires

Lithium-ion battery fires are becoming increasingly common as more electronic items containing these batteries are discarded improperly.

When crushed in bin lorries or recycling centres, hidden batteries can ignite, leading to dangerous fires.

The National Fire Chiefs Council has described these fires as “a disaster waiting to happen.”

In the past year, over 1,200 battery fires have been recorded in the UK, a 71% increase from 2022.

These fires not only endanger lives but also cause significant air pollution, breaking WHO limits in local areas.

Councils promote safe recycling options

Cambridge City Council and South Cambridgeshire District Council are promoting safe recycling options for batteries and small electronic items.

According to Natalie Warren-Green, Lead Cabinet Member for Environmental Services and Licensing, residents can recycle these items at local collection points, including shops, recycling banks, and larger Recycling Centres.

For households with their own bins, small household batteries can be recycled by placing them in a sealed bag on top of their wheelie bins.

The campaign aims to reduce the risk of fires and protect both the environment and public health.

National campaign highlights the importance of recycling

The ‘Recycle Your Electricals’ campaign, supported by Cambridge City Council, emphasizes the importance of recycling batteries and electronic items.

Scott Butler, Executive Director of Recycle Your Electricals, stated: “With more and more products containing lithium-ion batteries, and battery fires on the rise, it’s vital that we stop these fires and reduce the air pollution impact that they have on our local communities.”

The campaign also highlights the economic impact of battery waste fires, with some insurance claims reaching up to £20 million.

Residents are encouraged to visit www.recycleyourelectricals.org to find local collection points for safe disposal.

Cambridge councils warn of battery fires in waste collection and recycling: Summary

Cambridge City Council and South Cambridgeshire District Council have launched a campaign to prevent fires caused by discarded batteries and electronic gadgets.

The initiative, featuring the Hypnocat character, aims to educate residents about the dangers of improper disposal.

In 2024, seven fires have already occurred in the Greater Cambridge area due to hidden lithium-ion batteries igniting when crushed in bin lorries or recycling centres.

The campaign promotes safe recycling options at local collection points and through the ‘Recycle Your Electricals’ campaign, which underscores the importance of reducing battery fires to protect public health and the environment.

Evonik expands heat and fire-resistant coatings for electric vehicle batteries

by Featured NewsSafety

Evonik introduces advanced fire-resistant coatings for EV battery safety

Evonik is expanding its TEGO Therm product range to include heat protection and fire-resistant coatings for electric vehicle (EV) battery housings and covers.

As reported by Evonik, the rapidly growing EV market is seeing increasingly stringent safety standards for lithium-ion batteries.

The TEGO Therm coatings offer a robust solution for the industry’s need for effective thermal insulation barriers, essential for preventing thermal runaway in EV batteries.

Dr Benjamin Schaeffner, Global Head of Market Segment Industrial and Transportation Coatings at Evonik Coating Additives, said: “With the electric mobility sector accelerating, the safety of lithium-ion batteries in EVs has never been more crucial.

“TEGO Therm is our response to the industry’s call for reliable thermal barriers that not only meet but surpass the stringent safety standards of today.”

Components of the TEGO Therm toolbox

The TEGO Therm toolbox includes various components designed to enhance the performance of thermal insulation and fire-resistant coatings.

TEGO Therm HPG 4000 granules feature a microporous silica core, providing low thermal conductivity, high hydrophobicity, and reduced flammability.

TEGO Therm HPG 6806 granules excel in insulation, strengthen mechanical performance, and ensure smooth surfaces of insulation coatings.

The waterborne polysiloxane hybrid binder, TEGO Therm L 300, enhances the thermal stability and fire resistance of protective coatings.

These coatings meet the UL 94 V-0 fire safety standards, providing a new level of protection for EV batteries.

The versatility of TEGO Therm allows for spray application on complex three-dimensional substrates, ensuring complete and efficient fire resistance coverage.

Dr. Niko Haberkorn, Global Head of Business Development for the Market Segment Industrial & Transportation Coatings at Evonik Coating Additives, said: “The synergy between TEGO Therm binder and granules is at the core of our solution.

“It minimizes heat transfer and effectively inhibits the spread of fires, offering crucial additional time for emergency response.

“Moreover, our products ensure high mechanical resistance, maintaining structural integrity in high-temperature scenarios.”

Evonik’s commitment to rigorous testing

Evonik’s dedication to safety and innovation is demonstrated through rigorous testing of TEGO Therm-based coatings.

When exposed to a propylene flame exceeding 1000 °C, these coatings effectively protected the substrate, maintaining moderate temperatures on the back of the substrate even with a thin dry film thickness.

These results highlight the effectiveness of TEGO Therm in insulating against intense heat and its suitability for space-constrained applications.

The expansion of TEGO Therm products marks a notable advancement in EV battery safety.

As the electric mobility market continues to grow, Evonik’s commitment to providing reliable and efficient coating solutions will contribute to a safer and more sustainable future for the automotive industry.

Evonik’s expertise in coating additives

Evonik’s Coating Additives business line offers a wide range of specialty additives for the coatings and inks sector.

With decades of expertise, the business provides pioneering products for various coatings markets, including decorative coatings, industrial coatings, automotive coatings, and printing inks.

Honeywell introduces AI-driven Battery MXP to boost gigafactory productivity

by ConstructionFeatured News

“This solution is vital in our manufacturing operation,” says John Kem, President of American Battery Factory

Honeywell has announced the launch of its Battery Manufacturing Excellence Platform (Battery MXP), an AI-powered software solution designed to optimize gigafactory operations.

As reported by Honeywell, this platform aims to improve battery cell yields and expedite facility startups.

Traditional battery manufacturing processes often result in material scrap rates as high as 30%.

Battery MXP integrates AI to detect and remedy quality issues before they lead to material waste.

This machine learning-driven solution transforms data into actionable insights to enhance efficiency and productivity.

Reducing scrap rates and increasing efficiency

Battery MXP is engineered to significantly reduce startup material scrap rates by 60% and increase production rates.

This improvement is crucial for meeting the growing demand for lithium-based batteries.

The platform offers powerful data to improve quality control and decision-making on the plant floor.

John Kem, president of American Battery Factory, commented on the impact of Battery MXP: “With Honeywell’s Battery MXP and its automation capabilities, we will be able to quickly and effectively establish a foundation for our network of gigafactories.

“This solution is vital in our manufacturing operation because it allows us to reduce scrap and scale up quickly, while also ensuring we meet the U.S. and international demand for high-quality lithium iron phosphate batteries as we prepare for the unprecedented surge expected over the next decade.”

Enhancing safety and traceability

Battery MXP offers bidirectional traceability, tracking battery cells from raw materials to finished products in real time.

This feature ensures product quality at every step of the manufacturing process.

Additionally, the solution addresses key challenges such as process controls, workforce management, and thermal runaway battery fire prevention, enhancing safety for both operators and end-users.

Pramesh Maheshwari, President of Honeywell Process Solutions, stated: “The electrification of everyday life continues to increase global demand for quality lithium-ion batteries to power electric vehicles, consumer electronics, and battery energy storage systems.

“With the construction of more than 400 gigafactories planned worldwide by 2030, Honeywell’s Battery MXP is a crucial technology that enables manufacturers to maximize cell yields and reach peak production much quicker than traditional methods.”

Aligning with global energy transition

Honeywell’s automation and energy transition portfolio supports the global shift towards electrification.

The company’s expertise in industrial automation, cyber-secure IoT, material handling, building automation, and safety solutions helps battery manufacturers meet the projected demand for reliable battery cells.

Honeywell’s Battery MXP is positioned as a key technology in the global energy transition, providing solutions that advance the electrification journey.

For more information on Battery MXP and Honeywell’s gigafactory solutions, visit process.honeywell.com/us/en/industries/sheet-manufacturing/lithium-ion-batteries.

IFSJ comment

The introduction of Honeywell’s Battery MXP is a notable development in the field of battery manufacturing.

The integration of AI and machine learning in the production process represents a step forward in addressing the inefficiencies and high scrap rates traditionally associated with gigafactories.

By enabling real-time quality control and reducing startup material waste, Battery MXP offers manufacturers a tool to accelerate production ramp-up and meet the growing demand for lithium-based batteries.

This is particularly relevant given the planned construction of numerous gigafactories worldwide by 2030, which underscores the increasing global reliance on battery technology for electric vehicles and other applications.