Full Circle Lithium Announces First US School Deployment of FCL-X to Address Rising Lithium Battery Fire Risks

• FCL enters the education sector with an initial rollout in a large southeastern school district and has advanced discussion with other regional schools and campuses
• Lithium-ion battery fire risks are increasing across schools and all education centers, from laptops to e-mobility and electric buses
• FCL-X provides a dedicated solution designed to suppress and prevent the re-ignition of lithium-ion battery fires

TORONTO, April 1, 2026 /PRNewswire/ – Full Circle Lithium Corp. (“FCL” or the “Company”) (TSXV: FCLI; OTCQB: FCLIF, FSE: K0Q), a leading US-based lithium-ion battery fire extinguishing products manufacturer, announces today its first sale into the United States educational system, with an initial deployment in a large school district in the southeastern United States. The milestone marks a significant step forward in addressing a rapidly growing safety challenge facing schools nationwide: lithium-ion battery fires.

This deployment reflects a proactive move by school leadership to confront an emerging, increasingly visible risk associated with the widespread use of lithium-powered devices in educational environments.

A Growing Problem in Modern Schools

Lithium-ion batteries are now embedded throughout the education ecosystem, from laptops and tablets in classrooms, to e-scooters and e-bikes on campus, to electric school buses and maintenance equipment.

While these technologies support digital learning and sustainability goals, they also introduce a growing fire risk that requires new safety solutions.

• Lithium-ion battery fires can ignite suddenly, burn at extremely high temperatures, and are prone to re-ignition.¹
• These batteries are present in nearly every device used daily by students and staff, significantly increasing exposure risk.²
• Fire authorities and safety experts across the U.S. have identified lithium battery incidents as a rapidly increasing hazard requiring targeted response measures. ¹

The Scale of the U.S. Education Market

The urgency of this issue is amplified by the sheer size of the United States education system:

• The K–12 system includes over 130,000 schools serving approximately 50 million students
• Colleges and universities add another 4,000+ institutions with more than 19 million students enrolled
• Combined, these institutions represent tens of millions of daily device users, with laptops, tablets, and personal mobility devices now standard tools for learning and campus life

From classrooms and dormitories to transportation fleets and maintenance operations, lithium-ion batteries are now deeply embedded in daily educational infrastructure.  As electrification and digital learning continue to expand, the education sector has become one of the largest and fastest-growing environments of concentrated lithium battery usage, making the need for effective, purpose-built fire safety solutions increasingly urgent. 

Recent events across U.S. schools highlight the scale and immediacy of the issue:

• Schools have been evacuated due to fires and smoke events caused by lithium-ion batteries in laptops, including widely used classroom devices.³
• One school district reported six separate lithium battery-related laptop fires, underscoring how quickly incidents can escalate.⁴
• Fire officials warn that these batteries can overheat, ignite, and even explode, posing serious risks in classroom settings.³

Beyond the classroom, the risk continues to expand:

• E-scooters and e-bikes brought onto school grounds
• Charging hubs with dozens of devices connected simultaneously
• Electric transportation, including school buses and service fleets

A Purpose-Built Solution for a Modern Hazard

Full Circle Lithium’s FCL-X technology is specifically engineered to address the unique challenges of lithium-ion battery fires, including:

• Rapid suppression of thermal runaway events
• Prevention of re-ignition
• Safe deployment in occupied environments such as schools

Traditional fire extinguishers are not designed for lithium-ion battery fires, leaving a critical gap in protection, one that schools are now beginning to address.

Carlos Vicens, CEO of Full Circle Lithium, commented: “Lithium-ion batteries are now everywhere in the school environment, from the classroom to transportation, and the risk is no longer theoretical. Schools across the U.S., including in the Southeast, are experiencing real incidents involving laptops, mobility devices, and charging systems. This is a growing problem that requires solutions specifically designed for these types of fires. This initial deployment is a key step in improving protection for our educational facilities.

Setting a New Standard for School Safety

As lithium-ion battery usage continues to accelerate, forward-thinking school systems are taking action to modernize their safety infrastructure. This first deployment in the southeastern United States highlights a broader shift: recognizing lithium battery fire risk as a system-wide safety issue and implementing solutions that match the complexity of the threat.

Footnotes

¹ Lithium-ion battery fires burn hotter, spread rapidly, and are more difficult to extinguish than traditional fires; fire authorities report increasing incident rates.
² Lithium-ion batteries power common school devices, including laptops, tablets, and micromobility equipment, increasing exposure in educational settings.
³ U.S. schools have experienced evacuations and fire incidents linked to lithium-ion batteries in laptops, with officials warning of explosion risk.
⁴ A U.S. school district reported six lithium battery-related laptop fires tied to device tampering and thermal runaway.

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Full Circle Lithium Announces First US School Deployment of FCL-X to Address Rising Lithium Battery Fire Risks, source

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ZincFive^®, a leader in nickel-zinc (NiZn) battery-based solutions for immediate power applications, has once again been recognized by TIME, earning a place on the America’s Top GreenTech Companies 2026 list for the third consecutive year. Developed in partnership with Statista, the ranking evaluates companies based on environmental impact, financial strength, and innovation, placing ZincFive among a select group shaping the future of sustainable technology.

This year, the company ranked #142 out of more than 3,500 evaluated organizations and is one of only two companies headquartered in Oregon to be included on the list.

The recognition reflects continued momentum for ZincFive’s nickel zinc battery technology, which has gained traction as an alternative to traditional energy storage options in mission critical environments. As data centers evolve to support artificial intelligence and increasingly dynamic workloads, the need for power solutions that can deliver both performance and safety has become more pronounced.

ZincFive’s approach centers on immediate power, delivering high power density in a compact footprint while avoiding the risks associated with other battery chemistries. Nickel zinc batteries are designed to provide reliable performance without thermal runaway concerns and rely on more abundant, recyclable materials, supporting both operational and environmental goals.

For ZincFive, continued recognition from TIME signals more than a milestone. It reflects a broader shift in how the industry is evaluating power infrastructure, with greater emphasis on safety, sustainability, and long term performance.

“Earning a place on TIME’s America’s Top GreenTech Companies list for the third consecutive year reflects the growing role of nickel-zinc technology in delivering safe, sustainable power,” said Tod Higinbotham, CEO of ZincFive. He emphasized the company’s “power of good chemistry” approach to balance performance, safety, and eco-friendliness.​

The company’s inclusion builds on a series of recent awards recognizing its innovation in energy storage, particularly in applications where reliability is critical. As demand for resilient and efficient power continues to grow, ZincFive’s technology is increasingly positioned to support the next generation of digital infrastructure.

For full details, read the press release here.

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In the rapidly evolving landscape of data centers powered by artificial intelligence, energy storage strategies are undergoing a profound transformation. ZincFive^®, a leader in nickel-zinc battery solutions, has unveiled its third annual 2026 Data Center Energy Storage Industry Insights Report, developed with Endeavor Business Intelligence. This comprehensive study, based on surveys of 150 global industry professionals conducted in early 2026, reveals how AI workloads are reshaping power infrastructure priorities.

Key Trends Emerge

The report identifies surging AI demands as a central force. Notably, 57% of respondents report that AI is driving higher power density needs and smaller footprints, a trend holding steady from 54% last year. Additionally, 52% emphasize managing AI’s dynamic power fluctuations and upholding power quality – a sharp rise from 37% in 2025 – highlighting the urgency for resilient storage solutions.

Cost and safety dominate decision-making. An impressive 84% prioritize total cost of ownership, up from 79% in 2025 and 65% in 2024, while 76% stress battery chemistry safety. AI dynamic power ranks as the second-biggest driver for technology shifts at 49%, after cost (58%). Sustainability also plays a pivotal role, with 70% factoring it into purchases and 46% achieving moderate to significant cost savings from sustainable initiatives.

Prioritizing Battery Features for AI Challenges

When addressing AI-specific power issues, professionals rank power density (38%), safety (37%), uptime (33%), and maintenance ease (32%) as top criteria for battery selection. These insights underscore the need for advanced chemistries like nickel-zinc, which ZincFive champions for its high power density, safety, and sustainability in mission-critical applications.

“As AI workloads continue to transform data center infrastructure, operators are facing new challenges around power density, power quality, and system reliability,” said Tod Higinbotham, CEO of ZincFive. “This year’s report highlights how the industry is adapting to these evolving demands while balancing cost, safety, and sustainability priorities. The findings underscore the growing need for energy storage technologies capable of delivering high power performance, operational resilience, and infrastructure efficiency in the era of AI-driven data centers.”

Implications for the Industry

This report builds on prior editions, tracking consistent yet intensifying trends amid AI’s expansion. Data center operators can download the full 2026 report, along with 2025 and 2024 versions, from ZincFive’s website to inform strategic planning. As AI continues to demand more from power systems, innovations in safe, efficient energy storage will be crucial for maintaining uptime and sustainability goals.

To read the full press release, please click here.

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ESN Premium discusses the sixth edition of the key industry safety standard, UL9540A, with Dana Parmenter of the standards organisation and NRTL, CSA Group.

BESS safety issues become all too visible when it's already too late, but a considered approach through the full lifecycle can mitigate these and many other risks, writes Sunny Rai from Intertek.

Revolutionizing EV Battery Safety: Raythink Releases Groundbreaking White Paper on Full-Lifecycle Thermal Risk Management

YANTAI, China, Feb. 2, 2026 /PRNewswire/ — Raythink Technology Co., Ltd. (“Raythink”) today announced the global release of its EV Lithium-ion Battery Safety White Paper, introducing a three-layer integrated thermal safety baseline. The system addresses key gaps in traditional lithium-ion battery safety monitoring and enables proactive, full-lifecycle management of EV battery thermal risks.

Three-Layer System for Proactive Safety

Raythink’s thermal safety baseline consists of three complementary layers that work alongside existing safety and control systems:

Layer 1: Reliable thermal cameras for harsh environments, placed at production lines, storage facilities, and other critical areas.
Layer 2: The VIS3000 cloud platform centralizes thermal data, enabling safety teams to analyze trends, review incidents, and document compliance.
Layer 3: Thermal Vision integrates with existing safety systems like BMS, fire alarms, and DCS, creating a unified, traceable safety network.

Together, these layers form a scalable, integrated thermal safety baseline that enhances proactive risk detection across the lithium-ion battery lifecycle.

Key Advantages of Raythink’s Thermal-Safety Baseline

Built on this foundation, the system provides multiple advantages. Its greatest strength lies in establishing a unified thermal safety baseline that spans the entire EV battery lifecycle.

Most monitoring solutions in practice remain fragmented: different stages rely on independent systems, making it difficult to maintain continuous, traceable safety oversight. In contrast, Raythink’s approach can be applied across key environments, including production and assembly lines, testing laboratories, storage facilities, charging and energy storage sites, and hazardous waste handling and recycling.

The unified system consolidates thermal data from all environments onto a single platform, generating valuable data-driven insights and delivering multiple benefits, including quality inspection and process insights beyond lithium-ion battery safety.

Industry Value and ROI

As EV adoption accelerates under policies such as the EU’s 2035 zero-emission targets, battery safety compliance is increasingly mandatory. Thermal Vision not only supports compliance with regulations such as the EU Battery Regulation and UNECE GTR No. 20, but also helps optimize production quality, prevent costly incidents, and reduce downtime, offering measurable long-term ROI.

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In 2018, Justin Kropp was working on a transmission circuit in Southern California when disaster struck. Grid operators had earlier shut down the 115-kilovolt circuit, but six high-voltage lines that shared the corridor were still operating, and some of their power snuck onto the deenergized wires he was working on. That rogue current shot to the ground through Kropp’s body and his elevated work platform, killing the 32-year-old father of two.

“It went in both of his hands and came out his stomach, where he was leaning against the platform rail,” says Justin’s father, Barry Kropp, who is himself a retired line worker. “Justin got hung up on the wire. When they finally got him on the ground, it was too late.”

Budapest-based Electrostatics makes conductive suits that protect line workers from unexpected current. Electrostatics

Justin’s accident was caused by induction: a hazard that occurs when an electric or magnetic field causes current to flow through equipment whose intended power supply has been cut off. Safety practices seek to prevent such induction shocks by grounding all conductive objects in a work zone, giving electricity alternative paths. But accidents happen. In Justin’s case, his platform unexpectedly swung into the line before it could be grounded.

Conductive Suits Protect Line Workers

Adding a layer of defense against induction injuries is the motivation behind Budapest-based Electrostatics’ specialized conductive jumpsuits, which are designed to protect against burns, cardiac fibrillation, and other ills. “If my boy had been wearing one, I know he’d be alive today,” says the elder Kropp, who purchased a line-worker safety training business after Justin’s death. The Mesa, Ariz.–based company, Electrical Safety Consulting International (ESCI), now distributes those suits.

Conductive socks that are connected to the trousers complete the protective suit. BME HVL

Eduardo Ramirez Bettoni, one of the developers of the suits, dug into induction risk after a series of major accidents in the United States in 2017 and 2018, including Justin Kropp’s. At the time, he was principal engineer for transmission and substation standards at Minneapolis-based Xcel Energy. In talking to Xcel line workers and fellow safety engineers, he sensed that the accident cluster might be the tip of an iceberg. And when he and two industry colleagues scoured data from the U.S. Bureau of Labor Statistics, they found 81 induction accidents between 1985 and 2021 and 60 deaths, which they documented in a 2022 report.

“Unfortunately, it is really common. I would say there are hundreds of induction contacts every year in the United States alone,” says Ramirez Bettoni, who is now technical director of R&D for the Houston-based power-distribution equipment firm Powell Industries. He bets that such “contacts”—exposures to dangerous levels of induction—are increasing as grid operators boost grid capacity by squeezing additional circuits into transmission corridors.

Electrostatics’ suits are an enhancement of the standard protective gear that line workers wear when their tasks involve working close to or even touching energized live lines, or “bare-hands” work. Both are interwoven with conductive materials such as stainless steel threads, which form a Faraday cage that shields the wearer against the lines’ electric fields. But the standard suits have limited capacity to shunt current because usually they don’t need to. Like a bird on a wire, bare-hands workers are electrically floating, rather than grounded, so current largely bypasses them via the line itself.

Induction Safety Suit Design

Backed by a US $250,000 investment from Xcel in 2019, Electrostatics adapted its standard suits by adding low-resistance conductive straps that pass current around a worker’s body. “When I’m touching a conductor with one hand and the other hand is grounded, the current will flow through the straps to get out,” says Bálint Németh, Electrostatics’ CEO and director of the High Voltage Laboratory at Budapest University of Technology and Economics.

A strapping system links all the elements of the suit—the jacket, trousers, gloves, and socks—and guides current through a controlled path outside the body. BME HVL

The company began selling the suits in 2023, and they have since been adopted by over a dozen transmission operators in the United States and Europe, as well as other countries including Canada, Indonesia, and Turkey. They cost about $5,200 in the United States.

Electrostatics’ suits had to meet a crucial design threshold: keeping body exposure below the 6-milliampere “let-go” threshold, beyond which electrocuted workers become unable to remove themselves from a circuit. “If you lose control of your muscles, you’re going to hold onto the conductor until you pass out or possibly die,” says Ramirez Bettoni.

The gear, which includes the suit, gloves, and socks, protects against 100 amperes for 10 seconds and 50 A for 30 seconds. It also has insulation to protect against heat created by high current and flame retardants to protect against electric arcs.

Kropp, Németh, and Ramirez Bettoni are hoping that developing industry standards for induction safety gear, including ones published in October, will broaden their use. Meanwhile, the recently enacted Justin Kropp Safety Act in California, for which the elder Kropp lobbied, mandates automated defibrillators at power-line work sites.

This article was updated on 14 January 2026.

Full Circle Lithium Launches First of Its Kind Lithium Battery Fire Extinguishers for Retail, Commercial, and Industrial End-Users

• Specifically designed for fire safety for dangerous and hard-to-control lithium-ion battery fires in retail/home, commercial, and industrial settings
• This new launch includes six new extinguisher sizes that use FCL’s proprietary, non-hazardous, non-toxic, water-based fire-extinguishing agent FCL-X
• Several important North American retailers, as well as commercial and industrial players, have expressed strong interest in carrying FCL’s new line of products, given the lack of an effective, efficient, and safe lithium battery fire extinguisher in the market

TORONTO, Jan. 21, 2026 /PRNewswire/ – Full Circle Lithium Corp. (“FCL” or the “Company”) (TSXV: FCLI) (OTCQB: FCLIF) (FSE: K0Q), a leading US-based lithium-ion battery fire extinguishing products manufacturer, is pleased to announce the launch of six new lithium-ion fire extinguishers sizes, including four retail-focused models (20 ounces, 1 litre, 2 litre and 3 litre) and two industrial-size units (30 litre and 50 litre), designed to address the growing risks associated with lithium-ion battery use across residential, recreational, and industrial environments. All new products will use FCL-X, a proprietary, non-hazardous, non-toxic, water-based fire-extinguishing agent, and will initially be launched in North American markets.

Lithium-ion batteries continue to power everyday life. The risk of thermal runaway, leading to battery-related explosions and fires, has increased across home electronics, power tools, e-mobility devices, and recreational equipment. FCL’s new extinguisher lineup was engineered specifically to address these unique hazards.

The retail-focused models are ideal for homeowners and consumer applications, providing targeted protection for electronics, laptops, e-bikes, e-scooters, power tools, and other battery-powered devices commonly found in the home. These compact units are designed for easy placement in garages, living spaces, workshops, and charging areas.

The new extinguishers also address the rapidly expanding use of lithium-ion batteries in recreational applications, including golf, boating, and powersports. As most golf carts transition to electric power and lithium-ion batteries become standard on boats and recreational vehicles, dedicated fire protection is increasingly critical. The new models offer peace of mind for golf courses, marinas, boat owners, and powersports enthusiasts alike.

For higher-risk and commercial environments, the two industrial-size extinguishers deliver greater agent capacity and performance, making them well-suited for warehouses, service facilities, charging stations, and industrial operations that manage large quantities of lithium-ion batteries. A 100-litre format will also be available over the next few months.

Chad Carver, VP of Sales and Operations, at the Company, said:

Lithium-ion batteries are everywhere, and the fire risks they present are fundamentally different from traditional fires,

“These new extinguishers were developed to help protect people, property, and investments, whether that’s a family home, a golf cart fleet, a boat at the marina, or an industrial facility.”

All six extinguisher sizes are engineered to meet applicable safety and performance standards and are available immediately through FCL’s authorized distribution network. They will soon be listed on FCL’s website as well.

FCL is working with a number of North American retailers who are very interested in making these specialty extinguishers available to their customers, as well as with a growing list of key commercial and industrial players exposed to lithium-ion battery fire risks. More information on these potentially transformative opportunities will be provided as they materialize over the next several months.

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What keeps data center operators up at night? Among other things, worries about the safety and reliability of their assets. Staying competitive, maintaining 24/7 uptime, and meeting customer demand can all seem like overwhelming tasks – especially while operating on a lean budget.

The good news is that safety and reliability are very compatible goals, especially in the data center. An efficient, proactive maintenance strategy will deliver both greater reliability and increased security, so that your data center can support ever-growing demand while maintaining the trust of its customers.

In this article, I’ll talk about the best practices for maintenance teams tasked with increasing safety and uptime. I’ll explain how choosing the right tools can help your data center thrive and scale, without increasing costs.

Baking In Safety and Efficiency 

Solid maintenance practices start at the commissioning stage.

There’s no getting around the fact that a data center build is labor-intensive and demanding. Every single connection, electrical point, and fiber optic cable needs to be tested and verified. If you’re not careful, the commissioning stage has enormous potential for error and wasted resources, especially in a hyperscale location. Here’s how to solve that problem.

Choose Your Tools Wisely

It’s important to use the right tools and build efficiencies into the commissioning stage. Think of this stage as an opportunity to design a process that makes sense for your crew and your resources.

If you’re working with a lean maintenance crew, make sure to use tools that are purpose-built for ease of use, so that everyone on your team can achieve high-quality results right away. Look for cable testers, Optical Time Domain Reflectometers, and Optical Loss Test Sets that are designed with intuitive interfaces and settings.

Select tools that comply with, or exceed, industry standards for accuracy. Precision results will make a huge difference when it comes to the long-term lifespan of your assets. Getting accurate readings the first time also eliminates the need for re-work.

Opt for Safety and Efficiency

As always, safety and efficiency go hand in hand. When you’re building a large or hyperscale data center, small gains in efficiency add up quickly. If your tools allow you to test each connection point just a few seconds more quickly, you’ll see significant savings by the end of the data center construction.

Once the commissioning stage is complete, it’s a question of consolidating your efficiency gains, and finding new ways to keep your data center resilient without raising costs. Let’s see what that looks like.

Using Non-Contact Tools for Safety and Efficiency

Once your data center is fully built, I recommend implementing non-contact tools as far as possible. Done right, this will drastically improve your uptime and performance, while reducing overall costs.

What does non-contact look like? For some equipment, like the pumps and motors that support your cooling equipment, wireless sensors can monitor asset health in real time, tracking vibration levels and temperature.

Using Digital and AI Tools

Tools like a CMMS, or an AI-powered diagnostic engine, sift through asset health data to pinpoint early indications of an emerging fault. Today’s AI tools are trained on billions of data points and can recognize faults in assets and component parts. They can even determine the fault severity level and issue detailed reports on the health of every critical asset in the facility.

Once the fault is identified, CMMS creates a work order and a technician examines the asset, making repairs as needed. For lean maintenance crews, digital tools free up valuable time and labor, so that experienced technicians can focus on carrying out repairs, instead of reading machine tests or generating work orders.

The bottom line: real-time wireless monitoring keeps your technicians safe, eliminating the need for route-based testing with a handheld device. No more sending workers to squeeze into tight spaces or behind machinery just to get a measurement. By extension, no more risk of human error or inaccurate readings. Digital tools don’t make careless mistakes, no matter how often they perform the same task.

Of course, wireless monitoring isn’t the only non-contact approach out there.

Bringing in the bots

It’s now increasingly common to send robots into the data center to perform basic tests. This accomplishes the crucial function of keeping people out of the data center, where they could potentially hurt themselves or damage something.

I often see robots used to perform thermal imaging tests. Thermal imaging is a key element in many maintenance processes, especially in the data center. It’s the best means of pinpointing electrical faults, wiring issues, faulty connections, and other early indicators of major issues.

Using a robot to conduct the testing (or a mounted, non-contact thermal imager) allows you to monitor frequently, for accurate and precise results. This also protects your team from potential dangers like arc flashes and electrical shocks.

Opening the (infrared) window

Infrared windows, installed directly into power cabinets, make power quality monitoring both safer and more efficient. This is by far the safest approach for operators and technicians. It also guarantees readings will be taken regularly and speeds up the measurement process, by eliminating the time-consuming permitting step. The more frequently your team takes readings, the more effectively they can identify emerging issues and get ahead of the serious faults that could impact your assets and your whole facility.

Successful scaling through automation

Standardizing and automating workflows can enable fast, effective scaling. These processes also extend the reach of lean maintenance teams, so that managers can oversee larger facilities while still delivering high performance.

Automated monitoring and testing – with wireless tools, robots, and non-contact technology—deliver data in near real-time. When you pair this with AI, or with data analytic software, you’ll be able to identify emerging asset faults long before they become serious enough to cause downtime. This predictive technology enables far greater uptime and productivity, while also extending the lifespan of your assets.

Automated AI diagnostic tools, condition monitoring, and robotic testing all enable data centers to scale and to continue to deliver the speed and performance that today’s digitalized economy relies on.

# # #

About the Author

Mike Slevin is a General Manager (Networks, Routine Maintenance & Process Instrument) at Fluke, a company known worldwide for its electronic test and measurement tools. Mike works with data centers and industrial clients to improve energy efficiency, safety, and reliability through better monitoring and maintenance practices.

The post Ensuring Equipment Safety and Reliability in Data Centers appeared first on Data Center POST.

BESS Large-Scale Fire Testing (LSFT) has been adopted as part of best practice thinking on safety validation, with at least a dozen companies announcing tests and results and many more expected going forward. It becomes mandatory in the 2026 edition of NFPA 855.

Earthing (grounding) is to make an electric connection between a conductive part and a local earth. This is a fundamental concept in electrical installations, providing a path for fault currents and helping ensure electrical safety. It prevents electric shock hazards, limits overvoltages, and ensures the proper operation of protective devices. There are several earthing systems […]