Dragonfly Energy Holdings Corp.
For the period ended Dec 31, 2025. Filed Mar 30, 2026.
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FY2025 · Filed Mar 30, 2026
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Item 1. Business
All references in this report to “Dragonfly,” the “Company,” “we,” “us,” or “our” mean Dragonfly Energy Holdings Corp. and its subsidiaries unless stated otherwise or the context otherwise indicates.
Overview
We are a manufacturer of non-toxic deep cycle lithium-ion batteries that caters to customers in the consumer industry (including the recreational vehicle (“RV”), marine vessel, industrial, and trucking markets), with proprietary, patented and disruptive battery cell manufacturing and non-flammable solid-state cell technology currently under development. Our goal is to develop technology to deliver environmentally impactful solutions for energy storage to everyone globally. We believe that the innovative design of our lithium-ion batteries is ideally suited for the demands of modern customers who rely on consumer electronics, connected devices and smart appliances that require continuous, reliable electricity, regardless of location.
Our deep cycle lithium iron phosphate (“LFP”) batteries provide numerous advantages compared to incumbent products, such as lead-acid batteries. LFP batteries are non-toxic and environmentally friendly, do not rely on scarce or controversial metals and are a highly cost-effective storage solution. LFP batteries use lithium iron phosphate (“LiFePO4”) as the cathode material for lithium-ion cells rather than nickel or cobalt. Although the energy density of LFP batteries is lower, they have a longer cycle life and experience a slower rate of capacity loss. LFP is also intrinsically safer than sulfide gases due to its thermal and chemical stability, meaning our LFP batteries are less flammable than alternative products. As we develop our proprietary solid-state cell technology, we believe our use of LFP will continue to provide significant advantages over the lithium-ion technology in development by most other companies that still incorporate less stable components in their chemistries (such as sulfide gases, which are chemically unstable and form hydrogen sulfide when exposed to air).
Recently, we have moved away from our dual-brand strategy for battery products, Dragonfly Energy (“Dragonfly Energy”) and Battle Born® Batteries (“Battle Born”). Moving forward, Battle Born is the brand under which we sell our energy storage products and related power system components. Battle Born products are sold across multiple channels, including original equipment manufacturers (“OEM”), distributor, dealer, fleet, and direct-to-consumer relationships, depending on the application and customer requirements. As adoption of lithium-based energy storage has expanded, Battle Born products have been increasingly integrated into factory-installed and system-level applications across a range of end markets. Our product portfolio includes LFP battery packs, integrated battery management systems, integrated heating capability for cold-temperature operation, and system-level communication and monitoring enabled through our Dragonfly IntelLigence® technology. We source LFP cells from a limited number of carefully selected suppliers that meet our quality and performance requirements, and we design, assemble, and test the majority of our battery products in the United States, supported by long-term supplier relationships that promote consistent supply and product reliability.
Reflecting the strength of our Battle Born brand, we signed a brand licensing contract in July of 2024 with Stryten Energy for the Battle Born brand to be deployed in B2B sales within Stryten’s target market. The contract is expected to bring $30 million of licensing revenues within a seven year period. Additionally, we signed a contract manufacturing agreement that allows for us to assemble battery packs to be sold by Stryten under the Battle Born label. Both licensing and contract manufacturing revenues from these contracts began in 2025 and are expected to continue into 2026.
Founded as an aftermarket-focused company, we initially targeted direct-to-consumer (“DTC”) sales within the recreational vehicle (“RV”) market. Since 2020, we have successfully sold over 370,000 batteries. For the fiscal years ended December 31, 2025, and December 31, 2024, we sold 43,129 and 42,447 batteries, respectively, generating revenues of $58.6 million and $50.6 million for each year.
Our innovative battery products have contributed to the ongoing transition from traditional lead-acid batteries to lithium-based energy storage solutions. Historically, demand from our DTC channel, combined with our efforts to educate and engage original equipment manufacturers (“OEMs”), supported our initial market penetration and brand development.
As our business has evolved, our growth strategy has increasingly shifted toward OEM, fleet, and industrial channels, where we can deliver integrated energy storage solutions at scale. While DTC continues to support brand awareness and aftermarket demand, it is no longer the primary driver of our growth strategy.
Historically and currently, we have driven total sales growth through the following strategies:
| 1. | Expansion of OEM and Fleet Partnerships: Increasing adoption of our battery systems in factory-installed and commercial applications across RV, trucking, and industrial markets. |
| 2. | Market Diversification: Expanding into adjacent markets, including marine, industrial, and heavy-duty trucking applications, where demand for reliable, long-life energy storage continues to grow. |
| 3. | Distributor and Dealer Engagement: Strengthening relationships with distributors and dealers to support broader market access and customer reach across both consumer and commercial segments. |
| 4. | System-Level Product Expansion: Expanding our portfolio of integrated power system components, including power conversion, monitoring, and control solutions, to deliver complete energy storage systems. |
| 5. | DTC Channel Optimization: Maintaining a targeted DTC presence to support brand visibility, customer education, and aftermarket sales, while reducing reliance on this channel as a primary growth driver. |
Our valued RV OEM partners currently include industry leaders such as Airstream, Tiffin Motorhomes, Forest River, Triple E RV, REV Group, Keystone RV Company (“Keystone”), Ember, nuCamp RV, ATC, and THOR Industries (“THOR”).
For the year ended December 31, 2025, we experienced a return to revenue growth following the market correction that affected our end markets in 2024. This improvement was driven primarily by increased adoption of our products by OEM customers, supported by modest growth in underlying RV market activity and expanded integration of our products across additional OEM models and configurations. OEM adoption continued to shift toward higher-content, non-entry-level platforms, which are more closely aligned with our product offerings.
Macroeconomic factors, including persistent inflation, elevated interest rates, and reduced consumer confidence, continued to impact discretionary spending and direct-to-consumer demand during 2025. As a result, demand within our DTC channels remained pressured, particularly within price-sensitive segments. Despite these headwinds, OEM sales represented a growing portion of our revenue mix, reflecting deeper penetration within existing OEM relationships and continued program expansion.
In addition to RV OEM growth, we continued to expand our presence in industrial applications and the heavy-duty trucking market. Within these markets, customers progressed from initial evaluations and pilot programs toward broader adoption, contributing to increased system deployments and revenue diversification.
In 2026, we expect continued growth to be driven by expanded adoption within our existing customer base, with a focus on OEM customers, including increased system content per unit, broader deployment of complementary power system components, and continued penetration of premium product platforms. We also anticipate further growth in our industrial and heavy-duty trucking markets as customer adoption expands and additional use cases transition from evaluation to commercial deployment.
We offer a growing portfolio of energy storage products and power system components under the Battle Born brand, with battery product lines differentiated by form factor, capacity, and application requirements. Our battery systems incorporate advanced features such as advanced battery management, integrated heating capability for cold-temperature operation, and system-level communication and monitoring enabled through our Dragonfly IntelLigence technology.
In addition to our battery products, we offer a range of complementary power system components, including charging, power conversion, monitoring, and control solutions, which enable customers to deploy complete and integrated energy storage systems. These components include both Battle Born-branded products and select third-party components that meet our performance and quality standards.
We also continue to leverage our expertise in alternator charging and power management as a result of our prior acquisition of the Wakespeed assets, which enables us to integrate advanced alternator regulation and charging control into the systems we design and support. This system-level capability allows us to address more complex power requirements across mobile and industrial applications.
Our battery packs are designed and assembled in-house in the United States. In November 2024, we relocated from our 99,000 square foot facility in Reno, Nevada to our new 390,240 square foot facility also in Reno, Nevada, which has allowed us to increase our production capacity and gives us the ability to increase sales to existing customers and penetrate new markets. Our 390,240 square foot facility provides a streamlined, partially autonomous production process for our current batteries, which comprises module assembly and battery assembly, with the availability to expand the number of lines to handle increased volumes and the additional battery modules we intend to introduce in the near future.
Through our Battle Born and Wakespeed brands, we serve several core end markets, including recreational vehicles, marine vessels, and other mobile and stationary power applications. In addition to these core markets, we are expanding our presence in trucking, including heavy-duty trucks and work truck applications, as well as industrial markets such as oil and gas and other infrastructure-related uses.
Across these markets, our products are designed to replace traditional lead-acid batteries with lithium-based energy storage solutions that deliver longer service life, improved safety, and more consistent power performance. Our Battle Born portfolio is engineered to support reliable, long-duration power in applications requiring dependable operation under demanding conditions.
We execute a multi-channel go-to-market strategy that leverages OEM relationships, industry education, and system-level expertise to support both consumer and commercial sales. Our OEM presence and longstanding partnerships serve as a foundational channel for product adoption, while thought leadership and technical education help drive broader market awareness and demand.
We maintain an extensive digital presence focused on education and system design, including technical documentation, instructional content, and search-optimized resources intended to inform customers and support purchasing decisions across both e-commerce and B2B channels. These efforts are complemented by targeted digital advertising initiatives designed to reach high-intent customers and support demand generation in priority markets.
We also work closely with dealer and distributor partners to extend market reach through in-store point-of-sale materials, product training, and technical support. Our sales organization is relationship-focused, emphasizing long-term customer engagement built around product quality, system integration expertise, and high levels of technical and post-sale support. We believe this approach results in more durable customer relationships and supports repeat adoption across applications and platforms.
Drawing upon our success in collaborating with RV and marine OEMs, we have begun expanding into the heavy-duty trucking market. We are leveraging our expertise in designing and supporting lithium-ion storage systems to tailor solutions meeting specific requirements for fleets. These solutions have been adopted as factory options, demonstrating their value proposition for truck fleets seeking to:
| ● | Reduce diesel fuel costs: our technology delivers significant fuel savings, offering a rapid return on investment. |
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| ● | Comply with anti-idling regulations: Lithium-ion batteries enable efficient power management eliminating the need for long haul truck drivers to idle, thus aligning with increasingly stringent regulations. |
| ● | Enhance sustainability efforts: Transitioning to long lasting and greener lithium-ion solutions contributes to improved environmental impact. |
This strategic approach has led to expanded adoption of our products by large fleet operators, including Highway Transport, Stevens Transport, and Werner Enterprises, as these customers have progressed from initial evaluations to broader system deployments. In parallel, we continue to engage in pilot programs with additional fleets, which remain an important driver of future customer adoption and expansion opportunities. We also support fleet adoption through industry collaboration and thought leadership, including co-authoring a technical whitepaper with PACCAR focused on electrification and energy storage applications in heavy-duty trucking.
To augment our core lithium-ion battery pack business, we rely on our research and development department. The team has successfully developed innovative manufacturing processes for dry-electrode manufacturing of lithium-ion cells, and continues development efforts relating to next-generation solid-state technology. Since our inception, we have built a comprehensive patent portfolio around our proprietary dry-electrode battery manufacturing process, which eliminates the use of harmful solvents and energy-intensive drying ovens compared to traditional methods. This translates to significant environmental and cost benefits, including reduced energy consumption, smaller space requirements, and a lower carbon footprint.
Moreover, our solid-state technology in development removes the need for a liquid electrolyte, thereby addressing safety concerns related to flammability. Our unique competitive edge lies in the combination of solid-state technology with its scalable dry-electrode manufacturing process. This enables the rapid production of cells having an intercalation anode (like graphite or silicon), unlike many competitors reliant on less stable lithium metal anodes. We believe this design offers superior cyclability and safety, serving as a key differentiator in the energy storage market. Furthermore, internal production of both conventional and solid-state cells streamlines our supply chain and enables vertical integration, ultimately driving down production costs.
Industry Background
For decades, lead-acid batteries have been the dominant player in power and energy markets worldwide. Since the introduction of the absorbed glass mat (“AGM”) lead-acid battery in the mid-1970s, the technological advancements in lead-acid battery technology have been limited. LFP batteries have numerous advantages over the incumbent lead-acid batteries used in today’s markets:
| ● | Environmentally Friendly, Socially Responsible and Safer. Lead-acid batteries that are not recycled or disposed of properly are extremely toxic and can cause areas of poisonous groundwater and lead buildups, impacting both humans and the environment. Research by EcoMENA shows that a single lead-acid battery disposed of incorrectly into a municipal solid waste collection system could contaminate 25 tonnes of municipal solid waste and prevent recovery of organic resources due to high lead levels. Lithium-ion batteries, specifically LFP batteries, have no toxic elements, offering a much safer environmental alternative to lead-acid batteries. LFP batteries also do not rely on controversial elements such as cobalt as part of their chemistry. Compared to lead-acid batteries, there is no concern of “off-gassing,” or the emission of noxious gases, for lithium-ion batteries, and therefore no need to take into consideration required ventilation or off-gas related fire risk when installing or recharging our LFP batteries. |
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| ● | Longer Lifespan. Lithium-ion batteries have longer lifecycles compared to lead-acid batteries. LFP batteries are able to cycle (i.e., discharge and charge) 3,000 to 5,000 times before hitting the 80% capacity mark. Comparatively, lead-acid batteries degrade quickly, only cycling 300-500 times before hitting 50% of their original capacity. Our third-party validated internal research suggests that if a typical AGM lead-acid battery and our LFP battery were cycled once every day, the AGM battery and our LFP battery would have a respective lifespan of 1.98 years and 19.18 years before reaching 80% depth of discharge (i.e., 80% of our battery would have been discharged relative to the overall capacity of the battery in that lifespan). In many storage applications, lithium-ion batteries have a lifespan exceeding the lifetime of the project with very limited maintenance requirements, compared to lead-acid batteries, which have a one- to two-year useful life in most applications. |
| ● | Power and Performance. As new technologies evolve and people consume more electricity, the importance of battery power and performance increases. Compared to lead-acid batteries, lithium-ion batteries can discharge power at a higher voltage and more consistently through the discharge cycle (i.e., until they are 100% discharged) while utilizing a smaller physical space and weighing less. In addition, unlike lead-acid batteries, lithium-ion batteries can be discharged below 50% capacity without causing irreparable harm to the battery. Lithium-ion batteries also provide the same energy capacity with one-fifth the weight of a standard lead-acid battery. Lithium-ion batteries are also significantly more reliable and efficient, especially in cold temperatures, allowing for year-round all-climate usage. |
| ● | Charging. Lead-acid batteries were the first rechargeable batteries on the market. However, due to new advancements in energy density (i.e., the amount of energy stored by mass volume) and charge/discharge rates, lithium-ion batteries now significantly outperform traditional lead-acid batteries. LFP batteries currently charge five times faster than their lead-acid counterparts, with even faster charging rates expected for the next generation of lithium-ion cells. With the appropriate battery management system, lithium-ion batteries can be charged in cold temperatures, something lead-acid batteries are unable to do, resulting in two to three times more power delivered. |
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| ● | Maintenance-Free. LFP batteries provide the benefit of being a maintenance-free option compared to lead-acid batteries. Unlike lead-acid batteries which have no battery management system to regulate current flow and charging rates, all our LFP battery packs include a proprietary battery management system that regulates current and provides temperature, short circuit and cold charging protection. Our LFP batteries also do not require cleaning or water, eliminating the need for periodic maintenance found in today’s lead-acid batteries. While our LFP batteries are generally designed to replace and physically fit into racks made for existing lead-acid batteries, our batteries can be installed in any position and without the need for venting. |
End Markets
Current Markets
We operate across multiple end markets that are undergoing a transition from traditional lead-acid batteries to lithium-based energy storage solutions, driven by increasing power demands, space and weight constraints, and a growing need for reliable, maintenance-free energy storage.
| ● | Recreational Vehicles. The recreational vehicle market continues to be an important driver of demand for lithium iron phosphate (LFP) energy storage batteries as RV designs and usage patterns evolve. According to data published by the RV Industry Association (“RVIA”), approximately 342,000 RV units were shipped in the United States during 2025, with towable RVs representing the substantial majority of total wholesale shipments. RV ownership and usage trends continue to support increased onboard power requirements, as RV interiors become more electrically intensive with the addition of appliances, electronics, and connectivity features associated with extended-stay and full-time RV use. The need for greater onboard power generation and energy storage is contributing to a shift away from incumbent lead-acid batteries toward LFP batteries. Traditional lead-acid batteries are heavy, occupy significant space, exhibit inefficient discharge characteristics, and require ventilation. LFP batteries address these limitations by enabling faster charging, significantly reduced weight, consistent power delivery, and maintenance-free operation. Historically, our RV market focus has been concentrated on motorized RVs; however, OEMs have increasingly integrated advanced electrical systems and energy storage solutions into towable RVs. The continued dominance of towable RV shipments, combined with increasing electrification across RV platforms, represents a growing opportunity for LFP battery adoption. |
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| ● | Marine Vessels. As boating becomes more popular in North America, the need for a reliable, non-flammable energy storage system is becoming increasingly apparent. According to the 2020 Recreational Boating Statistics and the 2020 National Recreational Boating Safety Survey, in 2018 over 84 million Americans participated in some form of boating activity. There were a total of over 11.6 million registered boats on the water as of 2023. Similar to the RV market, customers are becoming more technologically advanced and are adding more electronics to their vessels, in turn driving demand for larger and more reliable energy storage, such as LFP batteries. Tightening marina regulations are also driving the need for electric docking motors on more vessels and increasing the focus on safety, which LFP batteries are well-suited to address. |
| ● | Industrial. We serve a growing range of industrial and commercial applications that require reliable, stationary energy storage in both grid-connected and remote environments. These applications include power systems supporting municipalities, energy and infrastructure operators, transportation networks, and communications providers, where dependable power is required to support monitoring equipment, communications systems, control and relay equipment, safety and security systems, lighting, and other critical electrical loads. Demand in these applications is driven by the need for long service life, low maintenance requirements, and consistent performance across a wide range of operating conditions. Lithium iron phosphate (LFP) batteries are well-suited to these use cases due to their safety profile, durability, and ability to deliver reliable power in environments where traditional lead-acid batteries are constrained by weight, maintenance, or performance limitations. As electrification and remote monitoring continue to expand across industrial and commercial infrastructure, these stationary energy storage applications represent an increasingly important component of our current end markets. |
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| ● | Heavy Duty Truck. The heavy-duty truck market encompasses a broad range of vehicles designed for extensive commercial and industrial use, such as long-haul transport, construction, and logistics. Even in the midst of a historic freight recession, more than 200,000 Class 8 units sold in 2025. A surge in Class 8 units at the end of 2025 indicates a recovery in the market for vehicles that are integral to the backbone of global commerce and infrastructure projects. As the demand for more efficient, sustainable, and reliable transportation solutions grows, the use of Auxiliary Power Units (“APUs”) in heavy duty trucks is becoming increasingly significant. APUs provide an alternative energy source for powering onboard systems and maintaining cabin comfort during rest periods, without the need for the main engine to run-thereby reducing fuel consumption and emissions. Additionally, the market opportunity extends to the electrification of Transport Refrigeration Units (“TRUs”) on trailers and smaller class refrigerated vehicles, which are crucial for the cold chain logistics sector. This shift towards electrification is driven by the need for more sustainable and efficient cooling solutions, reducing the carbon footprint of refrigerated transport. The expansion of global trade and the continuous push for lower emissions standards are driving the demand for heavy duty trucks equipped with APUs, as well as for the electrification of TRUs, highlighting a considerable market opportunity. This trend emphasizes the potential for advanced battery technologies not only as an environmental solution but also as a competitive advantage in the heavy-duty truck and refrigerated transport markets, offering a substantial retrofitting and market penetration opportunity for battery manufacturers and suppliers with the requisite expertise and product offerings. |
| ● | Industrial Vehicles and Work Trucks. The industrial vehicle market includes work trucks, service and utility vehicles, material handling and warehousing equipment, and other specialty fleet vehicles that support commercial, municipal, and industrial operations. These vehicles increasingly rely on onboard electrical systems to power tools, monitoring and communications equipment, safety systems, lighting, and other auxiliary loads. Demand in this market is driven by increased automation, electrification of onboard equipment, and the need for reliable power in duty-cycle intensive environments. Lithium iron phosphate (LFP) batteries are well-suited for these applications due to their long service life, safety profile, and ability to deliver consistent power with minimal maintenance compared to traditional lead-acid batteries. As fleet operators seek to improve reliability, reduce maintenance requirements, and support expanded electrical functionality, adoption of LFP-based energy storage solutions across industrial vehicles and work truck platforms continues to expand. |
Addressable Adjacent Markets
Our addressable markets are areas with significant growth potential that we will be positioned to penetrate as customers turn towards LFP and other lithium-ion batteries as replacements for traditional lead-acid batteries. As these medium- and long-term markets mature, we intend to deploy our solid-state technology, once developed, while concurrently continuing to further displace the incumbent lead-acid technology.
| ● | Emergency and Standby Power. Demand for reliable emergency and standby power sources is expected to continue to drive demand for effective power storage for residential, commercial and industrial uses. Power outages in the United States cost an estimated $150 billion per year, according to the Department of Energy, increasing the demand for uninterrupted power sources. The need for reliable emergency and standby power exists in both hazardous and non-hazardous environments and is particularly acute in areas where the existing grid service is subject to intermittencies or is otherwise inefficient (including as a result high peak electricity usage, grid and related equipment age or severe weather and other environmental factors). LFP batteries are able to offset grid-related intermittencies and inefficiencies and assist in providing grid stabilization. Importantly, LFP batteries achieve these benefits in a clean, reliable and safe manner by supplanting or reducing the use of fossil fuel backup generators. |
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| ● | Data Centers. Data centers have seen strong growth in recent years, with over 5,000 data centers in the United States as of September 2023 according to Statista. Constant technological advancements and larger amounts of data generated and stored by companies for increasingly longer periods of time are driving growth in the importance, and the amount, of physical space dedicated to data centers. As software companies, such as Google and Oracle, continue to develop new technologies, such as artificial intelligence, data centers where the computer and storage functions are co-located also continue to grow. As the industry seeks to cut operating costs, become more efficient and minimize dedicated physical space, we expect there to be a shift towards light, compact lithium-ion batteries that can reduce overall costs and provide a reliable power supply without sacrificing performance. Lithium-ion batteries are designed to operate in environments with higher ambient temperatures than incumbent energy storage methods (such as lead-acid batteries). This ability for lithium-ion batteries to withstand and operate at higher temperatures can also reduce cooling costs. |
| ● | On-grid Storage. On-grid energy storage is used on a large-scale platform within an electrical power grid in conjunction with variable renewable energy sources such as solar and wind projects. These storage units (including large-scale stationary batteries) store energy when electricity is plentiful, and discharge energy at peak times when electricity is scarce. Because of the low cost of fossil fuels, the adoption of large-scale batteries has been slow. However, according to the U.S. Energy Information Administration 2021 report on battery storage in the United States, lithium-ion battery installations in large-scale storage grew from less than 50 MWh of energy capacity annual additions in 2010 to approximately 400 MWh in 2019. As lithium-ion battery production scales, the related cost of storage for all lithium-ion batteries will decline and the cost of renewable energy (including associated storage costs) is expected to approach $0.05 per kWh, which is the amount required to be cost competitive with the price of power from the electrical grid. We believe our ability to cost-effectively develop and manufacture LFP solid-state batteries will position renewable energy projects deploying these batteries to reach “grid parity” sooner. |
Our Competitive Strengths
We believe that we possess the largest share in the markets we operate in due to our following business strengths, which distinguish us in this competitive landscape and position us to capitalize on the anticipated continued growth in the energy storage market:
| ● | Premier Lithium-Ion Battery Technology. Each of our innovative batteries features custom designed components to enhance power and performance in any application or setting. Our batteries feature LFP chemistry that is environmentally friendly, does not heat up or swell when charging or discharging, and generates more power in less physical space than competing lead-acid batteries. Unlike our competitors, our internal heating technology keeps our batteries within optimal internal conditions without drawing unnecessary energy and sustaining minimal energy drain. To protect our products, our batteries possess a proprietary battery management system that shuts off the ability to charge at 24 degrees Fahrenheit. This technology increases performance in cold weather conditions while possessing a unique heating solution that does not require an external energy source. |
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| ● | Extensive, Growing Patent Portfolio. We have developed and filed patent applications on commercially relevant aspects of our business including chemical compositions systems and production processes. To date, we have owned 50 issued patents, with an additional 38 patent applications pending, in the United States, Canada, Australia, Korea, Japan, India, China, and Europe (with individual patents in Germany, France and the United Kingdom). |
| ● | Proven Go-To-Market Strategy. We have developed strong working relationships with major OEMs and fleets across the RV, marine, and heavy-duty trucking markets, which represent the primary focus of our commercial strategy. We custom design and engineer storage systems for new and existing applications and continue to expand relationships with leading OEMs, fleets, and distributors. Our established DTC platform supports brand awareness, customer education, and aftermarket demand. Extensive informational content and customer support resources provide technical guidance and facilitate customer transition from traditional lead-acid or incumbent lithium-ion batteries to our products. |
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| ● | Established Customer Base with Brand Recognition. We have established a broad and diversified customer base that includes OEMs, distributors, upfitters, fleet operators, and end consumers across multiple end markets. Our products are deployed in a wide range of applications, including recreational vehicles, marine vessels, industrial and commercial power systems, and other mobile and stationary energy storage use cases. Brand recognition developed through our aftermarket presence has supported increased adoption by OEMs and fleet customers, many of whom integrate our products into factory-installed or system-level solutions. We believe this combination of channel diversity, repeat customer engagement, and expanding OEM and fleet relationships provides visibility into future growth opportunities as we continue to deepen existing partnerships and broaden system-level offerings |
| ● | High Quality Manufacturing Process. Unlike competitors that outsource their manufacturing processes, our batteries are designed, assembled and tested in the United States, ensuring that our manufacturing process is thoroughly tested and our batteries are of the highest quality as a result of governmental regulations for performance and safety. |
| ● | Drop-in Replacement. Our battery modules are largely designed to be “drop-in replacements” for traditional lead-acid batteries, which means that they are designed to fit standard RV or marine vessel configurations without any adjustments. Our target applications are powering devices and appliances in larger vehicles and low speed industrial vehicles. We offer a full line of compatible components and accessories to simplify the replacement process and provide consumers with customer service to ensure a seamless transition to our significantly safer and environmentally friendly battery. Over their lifetime, our batteries are significantly cheaper from both an absolute cost and a cost per energy perspective. These lifetime costs, at current costs and capacity, will naturally drop as we continue to take advantage of economies of scale. |
Our Growth Strategy
We intend to leverage our competitive strengths, technology leadership and market share position to pursue our growth strategy through the following:
| ● | Expand Product Offerings. In the near term, our strategy is to expand and deepen our product offerings by providing customers with integrated power solutions rather than standalone components. We continue to broaden our portfolio of LFP batteries across existing voltage platforms and capacities while expanding the complementary components that enable complete power systems. These components include power management, monitoring, and communication technologies that support seamless system integration across a range of applications. In 2024, we began selling batteries equipped with Dragonfly IntelLigence, a proprietary monitoring and communication platform that enables system-level visibility, optimization, and data collection across battery banks. Building on this foundation, we are focused on delivering a more comprehensive and interoperable power ecosystem that simplifies system design, installation, and operation for OEMs, distributors, and end customers. We believe this system-oriented approach enhances customer value, supports repeat adoption across applications, and expands our opportunity within our existing customer base. |
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| ● | Expand End Markets. We have identified additional end markets that we believe will increasingly adopt lithium-based energy storage solutions, including LFP batteries, as demand for reliable and efficient power grows. These markets include industrial and heavy-duty trucking applications, where adoption has progressed from pilot programs to early commercial deployments. While revenue contribution remains in the early stages, we have seen initial validation through production orders and expanding customer engagement. We aim to build on this momentum by continuing to develop products tailored to these end users. |
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| ● | Commercialize our Dry Electrode Cell Manufacturing Technology. We have developed and continue to advance our proprietary and patented dry electrode cell manufacturing technology, which is designed to enable the production of lithium-based battery cells across multiple chemistries using a less capital-intensive and more energy-efficient process than conventional wet coating methods. The dry deposition process is chemistry agnostic and supports manufacturing in a smaller physical footprint, contributing to lower total production costs. An independent third-party assessment found that this dry electrode manufacturing approach has the potential to be more scalable, cost-effective, and environmentally sustainable than conventional slurry-based processes. We have demonstrated the ability to manufacture both anode and cathode materials using this process and have produced sample cells incorporating PFAS-free binders and automotive-grade electrode loadings. Ongoing development efforts are focused on process optimization and equipment scaling to support future commercial deployment |
| ● | Develop and Commercialize Solid-State Technology. We believe solid-state technology presents a significant advantage to all products currently on the market, with the potential to be lighter, smaller, safer and cheaper. Once we have optimized the chemistry of our LFP solid-state batteries to enhance conductivity and power, we intend to scale up for mass production of separate solid-state batteries for various applications and use cases. |
Our Products and Technology
Chemistry Comparison
Lead-acid batteries were the first form of rechargeable battery to be developed and modified across different platforms for a variety of uses, from powering small electronics to use for energy storage in back-up power supplies in cell phone towers. Since the development in the 1970s of AGM lead-acid batteries, a form of sealed lead-acid battery that enables operation in any position, there has been limited innovation in lead-acid battery technology. The push to develop longer-lasting, lower-cost, more environmentally-friendly and faster-charging batteries has led to the development of lithium-ion batteries and, within the lithium-ion battery market, different chemistries.
There are several dominant battery chemistries in the lithium-ion market that can be used for different purposes. Two widely adopted chemistries found in the market today are nickel manganese cobalt (“NMC”), and nickel cobalt aluminum (“NCA”). The higher energy density and shorter cycle life found in NMC and NCA batteries are suitable for markets where fast charging and high energy density are required, such as electric vehicle (“EV”) powertrains and consumer electronics. LFP batteries are best suited for energy storage markets where long life and affordability are paramount, such as RV, marine vessel, off-grid storage, onboard tools, material handling, utility-grade storage, telecom, rail and data center markets.
NMC batteries are highly dependent on two metals that present significant constraints - nickel, which is facing an industry-wide shortage, and cobalt, a large percentage of which comes from conflict-ridden countries. As a result, a growing number of companies are expected to transition to LFP batteries. Both of these elements are also subject to commodity price fluctuations, making NMC and NCA batteries less cost-effective than LFP batteries. LFP batteries do not contain these elements and materials can be sourced domestically, and are therefore not subject to these shortages, geopolitical concerns or commodity price fluctuations. In fact, LFP batteries have no toxic elements, offering a much safer environmental alternative. The temperature threshold for thermal runaway (i.e., lithium-ion battery overheating that can result in an internal chemical reaction) is higher for LFP batteries as compared to NMC and NCA batteries, making LFP batteries less flammable and safer.
LFP batteries have a useful life of approximately 10 to 15 years compared to one to two years for lead-acid batteries, and typically charge up to five times faster. LFP batteries are also not constrained by weight (having the same energy capacity at one-fifth of the weight) or temperature (having the ability to generate power even in low temperatures and to not swell or heat up when charging or discharging) and are generally maintenance free.
In the electric vehicle market, the race to provide the highest energy density facilitating frequent, rapid acceleration, greatest range and fastest charging battery - all while competing on cost - is where many new battery companies are prioritizing their efforts. Success in the electric vehicle market requires use of chemistries capable of optimization to these requirements. In our targeted stationary storage markets, the ideal solution requires a safe, long-lasting battery in terms of discharge/charge cycles with a focus on providing a steady power stream. LFP batteries are better suited for the stationary storage market compared to NMC and NCA batteries, as LFP batteries are safer and have a significantly longer life cycle making them more cost-effective. The market for utility grade storage, particularly for clean energy projects, and the related adoption of lithium-ion batteries (including LFP batteries) is expected to increase as the fully loaded cost of energy (production and storage) approaches cost parity with inexpensive fossil fuel energy provided through the electric grid. Compared to NMC and NCA batteries, LFP batteries are at or much closer to grid parity.
Dry Electrode Cell Manufacturing Technology
Since our inception, we have been developing proprietary dry-electrode manufacturing processes for which we have issued patents and pending patent applications, where appropriate. Dry-electrode manufacturing eliminates the use of toxic and expensive solvents and energy-intensive drying ovens in the cell manufacturing process. This in turn reduces the energy usage, space requirements, carbon footprint, and overall cost as compared to conventional slurry-based methods. Furthermore, the manufacturing technology is chemistry agnostic - meaning it can produce battery cells across a variety of different chemistries and application use cases. In 2023, we completed the construction of our dry-electrode manufacturing pilot line, demonstrated the ability to produce Anode and Cathode electrode tapes at scale using this manufacturing process. We have developed sample cells for prospective customers across a variety of chemistries and end-markets and are designing equipment for scaled production of full cells.
Solid-State Cells
LFP batteries are not without their disadvantages. While less flammable than other chemistries, the existence of a flammable liquid electrolyte still poses safety risks. Like all liquid-based lithium-ion batteries, LFP batteries have a potential to produce solid lithium dendrites, icicle-like formations which can pierce the physical separators in LFP batteries, which are necessary in LFP batteries to separate the positively charged liquid electrolyte from the negatively charged liquid electrolyte, and which, over time, will degrade the performance of LFP batteries and potentially result in fire-related risks. The next phase in the development of lithium-ion batteries is solid-state cell development, which contains a solid, rather than a liquid, electrolyte, eliminating many of the current disadvantages to LFP batteries while increasing the safety of the battery cells. We believe that the development of our solid-state technology will provide us with a unique competitive advantage.
Compared to current lithium-ion technology, where lithium-ions cross a liquid electrolyte barrier between a battery’s anode (negative electrode) and cathode (positive electrode), solid-state batteries aim to use a solid electrolyte to regulate the lithium-ions. As a battery charges and discharges, an electrochemical reaction occurs creating a flow of electrical energy between the cathode, electrolyte and anode as the electrodes lose and reacquire electrons. In addition to the use of non-toxic electrode components, the removal of a liquid electrolyte will eliminate the risk of fire, making solid-state cells inherently safe. The move to a non-liquid electrolyte also means that solid-state batteries will be, on average, smaller and lighter than existing lithium-ion batteries. The process for manufacturing our solid-state cells is described below under “-Research and Development”.
Our Products
We provide various industries with clean, reliable, and efficient power solutions through our comprehensive product portfolio. These products and solutions are sold to both OEMs and aftermarket customers.
Our lead product line is Battle Born Batteries product line, respected for its exceptional performance and durability. When compared to traditional lead-acid options, Battle Born Batteries deliver two to three times the power in the same physical space, one-fifth the weight for equal usable power, and up to five times faster charging. Additionally, these batteries have extended lifespans of 3,000-5,000 cycles, translating to ten to fifteen years of reliable use under typical conditions. This longevity is backed by our 10-year warranty, showcasing our commitment to quality. The Battle Born Batteries product line currently features various sizes and configurations including models with proprietary built-in heating for cold weather charging and Dragonfly IntelLigence®, a communication technology that unlocks real-time monitoring, instant notifications, various protocol integration and superior battery protection. A focus on safety is central to our products, and all Battle Born Battery products utilize LiFePO4 chemistry, the safest lithium-ion chemistry available on the market. Additionally, our battery products undergo rigorous testing under stringent industry standards like UL Standard 2054, IEC 62133, UN 38.3 and IP65 to ensure safety and reliability.
Looking beyond batteries, we also offer a diverse range of power products.
| ● | Battle Born Inverters and Inverter/Chargers. Our inverter and inverter/charger products provide pure sine wave AC power from DC battery systems and are designed for use in mobile, off-grid, and industrial applications. These systems support reliable power delivery for onboard electronics, appliances, and critical loads, and include features such as integrated transfer switching, configurable charging profiles, and compatibility with lithium and lead-acid battery chemistries. These products are designed to integrate with our battery systems as part of complete energy storage solutions. |
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| ● | Wakespeed Power Management Solutions. Our Wakespeed product line includes advanced power management and charging solutions designed to optimize battery system performance in mobile and industrial applications. The WS500 Advanced Alternator Regulator and WS500 Pro utilize real-time current, voltage, and temperature inputs to precisely control alternator output and battery charging. These systems support both lithium and lead-acid battery chemistries and are designed to improve charging efficiency, protect system components, and simplify installation and operation. In addition, we offer a 48V–12V bi-directional converter, which enables power transfer between voltage systems to support integrated, multi-voltage energy storage architectures. |
| ● | Battle Born All-Electric APU and DualFlow Power Pack. Designed for heavy-duty trucking applications, our lithium-powered auxiliary power solutions provide stored energy to support hotel loads, including HVAC systems, appliances, and onboard electronics during driver rest periods. These systems are designed to reduce engine idling, lower fuel consumption, and improve driver comfort. Our DualFlow Power Pack integrates battery storage with vehicle power systems to enable efficient energy management while maintaining battery charge during operation. These solutions are pre-assembled and designed for streamlined integration into commercial vehicle platforms. |
Additionally, as a distributor of leading brands like Victron, Rich Solar, and REDARC, we act as a one-stop shop for full system integration, catering to both OEMs and retail customers. Our complete offering allows customers to benefit from clean and sustainable power, extended lifespans, reduced costs, increased efficiency, and seamless integration - all backed by expert service and support.
Battery Management System
Our proprietary battery management system is developed and tested in-house. It offers a complete solution for monitoring and controlling our complex battery systems and is designed to protect battery cells from damage in various scenarios. We believe our battery management system is industry-leading as it:
| ● | enables batteries to draw power under 135 degrees Fahrenheit, and is designed to cut off charging at 24 degrees Fahrenheit to protect cells; |
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| ● | actively monitors the rate of change of currents to detect and prevent short circuiting, and also protects against potential ground faults; |
| ● | allows for up to an average of 300 amps continuously, 500 amp surges for 30 seconds, and momentary, half second maximum capacity surges; |
| ● | enables batteries to recharge even if completely drained; |
| ● | utilizes larger resistors to ensure balanced loads to improve performance and extend useful life; and |
| ● | facilitates scalability by enabling batteries to be combined in parallel and in series. |
Battery Communication System
We have developed a complete communication system branded Dragonfly IntelLigence, for which a U.S. non-provisional patent application and an international PCT patent application have been filed, to be used with Dragonfly Energy OEM systems and Battle Born batteries and bundles. This communication system will enable end customers to monitor each battery in real time, providing information on energy input and output and current or voltage imbalances. The communication system will be able to communicate with up to 24 batteries in a bank at one time and aggregate the data received from these batteries into a central system such as a phone or tablet. We began offering the Dragonfly IntelLigence product line to OEMs in the third quarter of 2024, and to retail consumers in the fourth quarter of 2024.
Alternator Regulation
Charging batteries in a vehicle, such as a boat or RV, often requires pulling electrical current off of the vehicle’s alternator. Alternator regulation is important to ensure that the alternator does not get unduly stressed during the current delivery to the batteries, and that the current delivery remains within the operating limits of the onboard battery bank. The acquisition of the assets of Wakespeed has allowed us to deliver our own proprietary solution to alternator regulation while also leveraging an established brand name. Wakespeed is especially popular in the marine industry, and our ability to offer this complete solution sets the stage for further penetration into marine markets.
Product Pipeline
Beyond our current battery modules, we have several LFP products in development that will enable us to access additional end markets.
| ● | New Products. Our current offerings feature battery products that serve the RV, marine vessel and off-grid markets. Although manufacturing operations were previously capacity constrained the expansion into our new manufacturing facility will allow us to add production capacity and increase product offerings and scale based on demand. |
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| ● | The majority of our current batteries are 12 volt batteries, which provide 100 amp hours of energy and are an affordable solution to customers utilizing smaller or lower power applications. The smaller stature and drop-in replacement nature of these batteries have made these popular within the RV and marine vessel markets. Through the expansion of our 12 voltage battery product offerings, we will be able to penetrate further into additional applications including towable RVs, truck campers and trolling motors for small boats. |
| ● | We also offer 24 voltage batteries, which currently deliver 50 amp hours, and plan to further expand our 24 voltage battery offerings to provide additional drop-in replacements for AGM batteries. A single 24 voltage battery is more efficient than two 12 voltage batteries due to the ability to power directly from the source without sacrificing power through cables and connectors. This attractive power source is ideal for off-grid housing, telecommunication, solar, marine and motorized home markets, providing enhanced power to larger scale applications. A vast majority of telecommunication cell sites utilize 24 voltage batteries, greatly expanding our addressable market. |
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| ● | We intend to expand our portfolio of 48 volt battery systems designed to improve efficiency and support larger-scale energy storage applications. These systems are expected to incorporate our Dragonfly IntelLigence platform to enable system monitoring, control, and performance optimization. These higher-voltage solutions are well-suited for applications requiring greater power capacity, including mobile, off-grid, and industrial use cases. |
| ● | System Integrator. A natural evolution of our business is to offer customers a system integration solution providing more efficient power solutions at a cost-effective price point. We currently offer components and accessories necessary to build out complete lithium power systems, including solar panels, chargers and inverters, system monitoring, Wakespeed’s alternator regulators, accessories, and more. We have an in-house expert customer service team that assists customers in fully integrating their applications to our technologies for a seamless transition to lithium-based energy storage systems. Through our evolving technology and the customized architecture and application of our products, we are able to offer customers a seamless transition to creating a centralized coordinated system. |
Research and Development
Our research and development team has built up its efforts to support two main initiatives - (1) scale up of our patented dry electrode process for cell manufacturing and (2) the advanced manufacturing of solid-state lithium-ion batteries. We believe the dry electrode process can be leveraged to help us vertically integrate from a pack supplier to a cell supplier - positioning ourselves for long-term competitiveness in the given geopolitical, economic, and technological landscapes. Our innovations in dry electrode processing result in reduced manufacturing costs, CO 2 equivalents, and factory footprint while eliminating the need for solvents like N-Methyl-2-pyrrolidone (“NMP”). A third-party assessment conducted by Sphere Energy confirming these benefits has been completed in the first quarter of 2024 relating to cost effectiveness and sustainability of our dry electrode battery manufacturing process (the “Sphere Energy Assessment”).
The Sphere Energy Assessment concluded that our dry electrode battery manufacturing process resulted in a 9% reduced carbon footprint of cell manufacturing with no toxic NMP solvent required, resulting in a significantly more sustainable process. This sustainability advantage is further augmented by a 71% reduction in energy usage during electrode manufacturing using our process (spray drying, coating, calendaring) compared to standard cell manufacturing operations (slurry casting, drying, calendaring). By removing the need for large and expensive drying ovens, our manufacturing process requires 22% less square footage. The culmination of these advantages results in a 25% reduction in emissions from energy use, making our manufacturing process more sustainable and much more environmentally friendly as compared to conventional manufacturing methods.
In addition to the energy savings, the cost assessment found our process to be highly cost-effective with an estimated 5% savings (depending on cell chemistry) on process-related costs compared to conventional methods. Importantly, these savings were calculated without the additional cost benefits provided by domestically manufacturing battery cells such as Inflation Reduction Act tax credits (issued by the IRS), tariffs, and shipping.
The dry electrode battery manufacturing process we employ uses a patented spray coating technology to adhere the anode and cathode electrodes, eliminating the need for large, energy-intensive equipment such as slurry coaters, conveyor dryers, and NMP processing equipment. This process is chemistry agnostic, allowing for the various applications, such as electric vehicles, consumer electronics, and energy storage, which is expected to enable us to expand into new markets and to achieve our goal of domestically producing nonflammable all-solid-state battery cells.
We have successfully produced anode and cathode electrode reels at scale using the dry electrode process and are now qualifying prototype cells for the core business and potential partners. When compared to slurry cast electrode tapes, which is the conventional manufacturing method, electrode tapes produced using the dry electrode process match or surpass mechanical integrity and electrochemical performance. We are considering joint development agreements, licensing agreements, and offtake agreements as instruments of partnership with interested parties.
In comparison with traditional manufacturing methods, our patented process leverages two off-the-shelf technologies to deliver the stated cell manufacturing benefits - spray drying and electrostatic powder coating. Technical risk is reduced by using off-the-shelf equipment and both unit operations continue to be optimized in 2025. A new set of spray dryers have arrived at our facility in the second quarter of 2024, enabling us to produce larger volumes of material for the electrode coating lines. However, we have delayed the deployment of these spray dryers until at least the third quarter of 2027 as we focus on designing larger-scale electrode coating equipment.
We have developed our patented to be chemistry agnostic and capable of producing current cell chemistries (graphite, LCO, LFP, LTO, NCA, NMC, LTO, silicon, etc.) and next generation cell chemistries (sodium-ion, solid-state, ionic liquid electrolytes, etc.). We believe this flexibility and our robust intellectual property protection internationally positions us well for potential partnerships with cell manufacturers, EV companies, and other pack suppliers in need of cell capacity. The next stage in technical development is to produce larger volumes of sample cells for qualification. These production runs will be completed with partners in the United States and at our own facilities. We have invested significant resources into developing an in-house comprehensive understanding of cell manufacturing - raw material qualification, quality control such as, cell failure diagnostics, aging, and formation processes. Our research and development Lab is equipped with over $20 million in research infrastructure to support the development of new cell chemistries, process quality control, failure diagnostics, and more. This equipment includes quality control instruments (ex. moisture analysis, particle size analysis, peel testing and titrations) and cutting-edge research instrumentation such as en operando nuclear magnetic resonance (“NMR”), electron microscopes with lithium-tracking capabilities, and en operando x-ray diffraction. This infrastructure has allowed us to optimize the dry-electrode process, allowing our team to match or surpass traditional electrode tape performance and mechanical integrity. Because our process is dry and the active material is coated directly onto the current collector, interfacial and composite resistivity of the electrode tapes often surpass the quality of slurry cast equivalents.
Our solid-state technology continues to progress as we qualify new chemistries and refine the dry electrode process for solid-state applications. Currently, we are cycling solid-state coin cells, although we have delayed the production of prototype pouch cells until at least the beginning of 2027. These cell chemistries are nonflammable, solid-state, and an LFP/graphite cell chemistry. We believe these cells will be a pivotal technology in grid storage applications once fully deployed. We intend to integrate our conventional and solid-state cells produced using our dry-electrode process into the existing Dragonfly Energy and Battle Born Batteries product portfolios.
Headquarters, Manufacturing, and Production
On February 8, 2022, we entered into a 124-month lease for an additional 390,240 square foot warehouse. In November 2024, we relocated our headquarters from our 99,000 square foot facility in Reno, Nevada to our new 390,240 square foot facility also in Reno, Nevada, which has allowed us to increase our production capacity and gives us the ability to increase sales to existing customers and penetrate new markets. Our 390,240 square foot facility provides a streamlined, partially autonomous production process for our current batteries, which comprises module assembly and battery assembly, with the availability to expand the number of lines to handle increased volumes and the additional battery modules we intend to introduce in the near future. We do not own any real estate property. We currently have four production lines. We continue to have the capability to expand our production volumes and line quantities to support increased volumes of new products we intend to introduce soon.
Our manufacturing process is divided into two aspects - (1) module assembly and (2) battery assembly. We use a combination of trained employees and automated processes to increase production capacity and lower costs while maintaining the same level of quality our customers expect from our products. Module assembly is a significantly automated process, implementing custom-designed equipment and systems to suit our production needs. This includes cycling of individual cells to detect faulty components and to enable sorting by capacity. Our custom-designed automated welders spot weld individual cells that are assembled into specified module jigs based on the desired amp hour. Completed modules are then fully discharged, recharged fully, and sorted by capacity. Battery assembly is performed largely by hand by our trained employees, although we continue to look for innovative ways to integrate automation into this process. Our proprietary battery management system is thoroughly tested for quality cutoffs, then mounted onto individual modules, before the modules are bolted into its casing. We aim to automate the battery management system testing and installation process, which we expect could increase production capacity fourfold. We are currently implementing an automated process for the gluing and sealing process, which would incorporate a two-robot system for gluing and epoxying, as well as a glue pallet system to move finished batteries. After the assembled batteries are tested and sealed, they are processed for outbound distribution.
Supplier Relationships
We have a well-established, global supply chain that underlies the sourcing of the components for our products, although we source domestically wherever possible. We aim to maintain approximately six months’ worth of all components, other than cells, which we pre-order in advance for the year to ensure adequate supply. For nearly all of our components, other than our battery management system, we ensure that we have alternative suppliers available. Our battery management system is sourced from a single supplier based in China who we have a nearly 10-year relationship with and who manufactures this component exclusively for us based on our proprietary design. Our cells are sourced from two different, carefully selected cell manufacturers in China who are able to meet our demanding quality standards. As a result of our long-standing relationships with these suppliers, we are able to source LFP cells on favorable terms and within reasonable lead-times.
As we look toward the production of our traditional and solid-state cells, we have signed a Commercial Offtake Agreement with a lithium mining company and a lithium recycling company, both located in Nevada for the supply of lithium.
Customers; RV OEM Strategic Arrangements
We currently serve more than 23,000 customers in North America. Our existing customers consist of leading OEMs (such as Keystone, THOR, REV Group and Airstream); distributors (who purchase large quantities of batteries from us and sell to consumers); upfitters (who augment or customize vehicles for specific needs); and retail customers (who purchase from us directly). For the years ended December 31, 2025 and 2024, OEM sales represented 63.0% and 54.5% of our total revenues, respectively.
We have deep, long-standing relationships with many of our customers. We also have a diverse customer base, with our top 10 customers accounting for 57.5% of our revenue for the year ended December 31, 2025, in which only two customers accounted for more than 10% of our revenue. Our customers primarily utilize our products for RVs, marine vessels and off-grid residences. We work directly with OEMs to ensure compatibility with existing designs and also collaborate on custom designs for new applications.
The RV market is characterized by low barriers to entry. In North America, there are two large publicly traded RV companies, THOR Industries and REV Group, in addition to a number of independent RV OEMs. THOR and REV each own a number well-known RV OEM brands and their related companies. These brands compete on a number of factors such as format (e.g., motorized or towable), price, design, value, quality and service. On November 19, 2021, we entered into a long-term Manufacturing Supply Agreement with Keystone, a member of the THOR group and the largest towable RV OEM in North America (the “Supply Agreement”). Under the Supply Agreement, we will be the exclusive supplier to Keystone for certain of its future LFP battery requirements, solidifying our long standing relationship with Keystone.
In July 2022, we strengthened our ties with the THOR group of RV OEMs when (i) THOR Industries made a $15,000,000 strategic investment in us and (ii) we agreed to enter into a future, mutually agreed distribution arrangement and joint IP development arrangement. This arrangement helps facilitate our ongoing efforts to drive adoption of our products (leveraging the trend of LFP batteries increasingly replacing lead-acid batteries) by, among other things, increasing the number of RV OEMs that “design in” our batteries as original equipment and entering into arrangements with members of the various OEM dealer networks to stock our batteries for service and for aftermarket replacement sales. Once the distribution agreement has been negotiated and signed, during a to-be-agreed transition period, we will use commercially reasonable efforts to cease marketing and selling our products to other RV OEMs and suppliers to RV OEMs in North America. Although the full distribution agreement with THOR has not been executed and is subject to negotiation in the future, its terms are expected to include: (i) an initial term of 24 months, which THOR may renew for successive one-year periods; (ii) a requirement that we be the sole provider of lithium-ion batteries to the US-based THOR family of companies for THOR sales in the United States, subject to agreed exceptions; (iii) favored pricing for products and negotiated rebates or other incentives; (iv) a requirement that THOR and its North American OEMs be our exclusive RV OEM customers for our products in North America, subject to agreed exceptions; and (v) agreeable terms with respect to registered and unregistered intellectual property rights and technology rights (which do not include our existing intellectual property, including our solid-state battery technologies and related IP rights), including necessary licenses between the parties, third party licenses, and allocation of ownership of any intellectual property rights and/or technology rights developed as a result of development efforts jointly undertaken between THOR and us, subject to certain limitations.
We continue to seek to grow our customer base within our existing segments; however, we also believe that our products are well suited to address the needs in additional segments, including residential, commercial and/or industrial standby power, long-haul trucking, industrial vehicles (such as forklifts, material handling equipment and compact construction equipment) and specialty vehicles (such as emergency vehicles, utility vehicles and municipal vehicles) and we will seek to expand our market share in these segments in the future.
Sales and Marketing
Our proven sales and marketing strategy has allowed us to penetrate our current end markets efficiently. We have established a highly efficient sales and marketing strategy, to penetrate targeted end markets and ensuring prominent visibility for our Battle Born Batteries and Wakespeed brands. We prioritize educating our customer base about the benefits of LFP batteries as a superior investment compared to traditional lead-acid options. Informational videos published on our website and social media platforms highlight these advantages, complemented by written guides that assist customers in configuring, installing, and utilizing battery systems and accessories. This messaging is further reinforced through our active presence at tradeshows, live webinars, and other in-person training events with dealers and customers, fostering direct engagement and ensuring comprehensive product understanding. Participation in these events fosters strong relationships with both OEMs and retail customers, keeping us attuned to evolving preferences. By leveraging this customer feedback, we collaborate with major OEMs to design solutions tailored to new and existing applications.
Additionally, we foster relationships with key industry publications, securing valuable editorial coverage that showcases our innovative power solutions and how they are used. We believe these strategic collaborations position our brands as industry leaders within our markets and to the general public as a whole, further strengthening brand awareness and consumer confidence.
We also leverage targeted pay-per-click advertising campaigns across various platforms, including search engines, and social media. This data driven approach ensures efficient conversion of high-intent customers at the bottom of the purchase funnel, maximizing return on investment and driving targeted brand awareness among potential buyers.
Direct relationships with retail customers remain a core value. Our user-friendly website facilitates direct purchases of Battle Born Batteries and Wakespeed products, along with well-known third-party components, allowing customers to explore and acquire complete system solutions in one convenient location. Furthermore, a dedicated team of in-house experts provides comprehensive sales, technical, and service support to ensure our valued customers receive exceptional care and expertise.
Competition
The energy storage market is highly competitive, with traditional lead-acid batteries still dominating. However, lithium-ion adoption continues to grow as customers seek better performance and longer lifespans. We compete with traditional lead-acid manufacturers and distributers, such as East Penn, Trojan, and Interstate and companies importing and white-labeling low-cost lithium products. This influx of inexpensive overseas batteries has intensified price competition. We believe our products stand out through American design and assembly, premium components, superior customer service, and full system design capabilities. Our batteries are lighter and longer-lasting compared to traditional lead-acid batteries, and easy to install as direct replacements for lead-acid batteries. Proprietary technologies, including advanced battery management systems, integrated heat capabilities, and intelligent battery communication, ensure reliable, high-performance energy storage as compared to traditional lead-acid batteries and other lithium-ion products.
With regard to solid-state technology, we have two main competitors, QuantumScape and Solid Power. While both of these competitors are focused on the development of solid-state technology for use in the propulsion of electric vehicles, we are focused on power storage applications, which has different requirements. We believe that our proprietary processes, systems and materials provide us with a significant competitive advantage in developing a fully solid-state, non-toxic and highly cost-effective energy solution.
As our solid-state technology comes to fruition and we begin to commercialize this product, we intend to become a vertically integrated battery company, internalizing all aspects of the manufacturing and assembly process. This is comparable to companies such as Tesla, BYD Limited and Li-Cycle. Our solid-state technology will also enable us to further penetrate the energy storage market, and we expect to compete with technology-focused energy storage companies such as EOS Energy, ESS and STEM.
Intellectual Property
The success of our business and our technology leadership is supported by our proprietary battery technology. We have received patents and filed patent applications in the United States and other jurisdictions to provide protection for our technology. We rely upon a combination of patent, trademark and trade secret laws in the United States and other jurisdictions, as well as license agreements and other contractual protections, to establish, maintain and enforce rights in our proprietary technologies. In addition, we seek to protect our intellectual property rights through non-disclosure and invention assignment agreements with our employees and consultants and through non-disclosure agreements with business partners and other third parties.
As of December 31, 2025, we owned 50 issued patents and 38 filed and pending patent applications. The pending patent applications are down from prior year since we abandoned 9 that were no longer useful. The patents and patent applications cover the United States, Canada, Australia, Korea, Japan, India, China, and Europe (with individual patents in Germany, France and the United Kingdom). We periodically review and update our patent portfolio to protect our products and newly developed technologies. Currently, we have a combination of issued patents and pending patent applications covering the ornamental design of our GC2 and GC3 batteries, a device and method for monitoring battery systems, pre-coated solid-state electrolyte and electroactive powders and their methods of manufacture, methods and systems for the dry spray deposition of materials in an electrochemical cell; a thermal fuse; battery systems implementing a mesh network communication protocol; a power charging system for use during towing of a vehicle; and a power charging system with temperature based charging control. These patents are expected to have expired or expire between May 2033 and 2043, absent any patent term adjustments or extensions.
We periodically review our development efforts to assess the existence and patentability of new intellectual property. We pursue the registration of our domain names and trademarks and service marks in the United States and other jurisdictions.
In an effort to protect our brand, as of December 31, 2025, we owned 41 trademarks globally. Dragonfly owns 18 trademark registrations to cover our house marks in the United States, including 8 registered trademarks for our design marks in the United States and we have 23 registered trademarks internationally.
Government Regulation and Compliance
We currently operate from a dedicated leased manufacturing facility located in Reno, Nevada as well as a leased R&D facility in Sparks, Nevada. We have never owned any facility at which we operated. Operations at our facilities are subject to a variety of environmental, health and safety regulations, including those governing the generation, handling, storage, use, transportation, and disposal of hazardous materials. To conduct our operations, we have to obtain environmental, health, and safety permits and registrations and prepare plans. We are subject to inspections and possible citations by federal, state, and local environmental, health, and safety regulators. In transit, lithium-ion batteries are subject to rules governing the transportation of “dangerous goods.” We have policies and programs in place to assure compliance with our obligations, such as policies relating to workplace safety, fire prevention, hazardous material management and other emergency action plans. We train our employees and conduct audits of our operations to assess our fulfillment of these policies.
We are also subject to laws imposing liability for the cleanup of releases of hazardous substances. Under the law, we can be liable even if we did not cause a release on real property that we lease. We believe we have taken commercially reasonable steps to avoid such liability with respect to our current leased facilities.
Employees and Human Capital Resources
As of December 31, 2025, we had 141 employees: 137 full-time, 1 part-time and 3 interns. We have adopted our Code of Ethics to support and protect our culture, and we strive to create a workplace culture in line with our values: “Tell the Truth,” “Be Fair,” “Keep Your Promises,” “Respect Individuals,” and “Encourage Intellectual Curiosity.” As part of our initiative to retain and develop our talent, we focus on these key areas:
| ● | Safety - Employees are regularly educated in safety around their workspaces, and employees participate in volunteer roles on a safety committee, and in emergency readiness roles. We have a dedicated safety coordinator who tracks and measures our performance, and helps us benchmark our safety programs against our peers. |
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| ● | Diversity, Equity & Inclusion - Our culture has benefitted from the diversity of our workforce from the very beginning. Inclusion and equity are “baked into the bricks” of our values, which our employees demonstrate every day. Our human resources department and all our corporate officers and directors have an open door policy, and are able to constructively communicate with employees to resolve issues when they arise. |
| ● | Collaboration - As we grow, opportunities for cross-functional collaboration are not as organic as they used to be. We have responded to that change by staying mindful and acting intentionally to gather cross-functional input on new initiatives and continuous improvement efforts. |
| ● | Continuous Improvement - We apply continuous improvement measures to processes as well as people. We encourage professional development of our employees, through ongoing learning, credentialing, and collaboration with their industry peers. |
Attracting and retaining high quality talent at every level of our business is crucial to our continuing success. We have developed relationships with the University of Nevada Reno and the Nevada System of Higher Education to further our recruitment reach. We provide competitive compensation and benefits packages, including performance-based compensation that rewards individual and organizational achievements.
Recent Developments
In March 2026, we implemented a strategic cost realignment designed to reduce operating expenses, better align incentives with shareholders and sharpen our focus on our commercial channels, including OEM, trucking, and industrial end markets. We expect the initiative to generate approximately $8.9 million in annualized savings. Key elements of the initiative include:
| ● | Board and Executive Leadership Compensation Adjustments: Each member of our executive leadership team and Board of Directors has agreed to reduce their cash compensation by approximately 20% for the remainder of fiscal 2026, effective April 1, 2026. In lieu of cash compensation, they have received equity-based incentives, aligning incentives with long-term shareholder value. |
| ● | Workforce and Compensation Adjustments: We have implemented a 20% reduction in total payroll expense through a combination of targeted workforce reductions and salary adjustments. Non-executive employees participating in salary reductions have received equity-based compensation. |
| ● | Reduction in Discretionary Spending: We are reducing discretionary spending, including a reduction in DTC-focused marketing expenses, as we shifts resources towards growing commercial revenues. |
| ● | Facility Consolidation: We are consolidating our rental space, which is expected to result in a $4.0 million reduction in expenses. |
Corporate Information
In October 2022, we completed the merger in connection with our business combination. On March 31, 2023, we changed our state of incorporation from the State of Delaware to the State of Nevada (the “Reincorporation”) pursuant to a plan of conversion dated March 30, 2023.The mailing address of our principal executive office is 12915 Old Virginia Road, Reno, Nevada 89521, and our telephone number is (775) 622-3448.
On December 18, 2025, we effected a reverse stock split of our issued and outstanding common stock at a ratio of 1-for-10 (the “Reverse Stock Split”). Shares of common stock underlying outstanding stock options and other equity instruments convertible into common stock were proportionately reduced and the respective exercise prices, if applicable, were proportionately increased in accordance with the terms of the agreements governing such securities in connection with the Reverse Stock Split. No fractional shares were issued in connection with the Reverse Stock Split. The Company paid cash in lieu of any fractional shares to which a stockholder of record was otherwise entitled as a result of the Reverse Stock Split. All of our historical share and per share information related to issued and outstanding common stock and outstanding options and warrants exercisable for common stock included or incorporated by reference in this prospectus have been adjusted, on a retroactive basis, to reflect the Reverse Stock Split.
We file periodic reports, proxy statements and other information with the SEC. Such reports, proxy statements and other information may be obtained, free of charge, by visiting the SEC’s website at www.sec.gov that contains all of the reports, proxy and information statements, and other information that we electronically file or furnish to the SEC. We also maintain a website at www.dragonflyenergy.com where we make available the proxy statements, press releases, registration statements and reports on Forms 3, 4, 8-K, 10-K and 10-Q that we (and in the case of Section 16 reports, our insiders) file with the SEC. These forms are made available as soon as reasonably practicable after such material is electronically filed with or furnished to the SEC. Press releases are also issued via electronic transmission to provide access to our financial and product news, and we provide notification of and access to voice and internet broadcasts of our quarterly and annual results. Our website also includes investor presentations and corporate governance materials.
The text of this filing, as the company filed it with the SEC, without its images or exhibits. This is not investment advice.