Authors:
Suraj Gujar, Tanisha Malwa
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Fuel Cell UAV Market Size & Share 2026-2035
Report ID: GMI13943
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Published Date: September 2026
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Fuel Cell UAV Market
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Fuel Cell UAV Market Size
The global fuel cell UAV market was valued at USD 1.95 billion in 2025 and is projected to reach USD 2.18 billion in 2026 and USD 7.62 billion by 2035, growing at a CAGR of 14.9% during 2026–2035. The addressable market spans hydrogen fuel cell-powered platforms and battery-electric platforms competing within the same procurement, certification, and mission-planning environment. Demand is concentrated where sortie continuity, payload endurance, and operating radius have greater value than the simplicity of battery recharging.
Fuel Cell UAV Market Key Takeaways
Market Leader: AeroVironment, Inc. led with over 17.6% market share in 2025.
Leading Players: Top 5 players in this market include AeroVironment, Inc., Doosan Mobility Innovation, Elbit Systems Ltd., Aurora Flight Sciences, Horizon Fuel Cell Technologies, which collectively held a market share of 53% in 2025.
Hydrogen propulsion changes the aircraft-level energy trade-off rather than simply extending flight time. A peer-reviewed comparison places hydrogen fuel-cell system energy density near 1,700 Wh/kg, versus roughly 150–250 Wh/kg for lithium-polymer batteries [1]Intelligent Energy, Hydrogen Fuel Cells for Unmanned Aerial Vehicles. intelligent-energy.com. This difference is commercially relevant for fixed-wing survey, persistent ISR, maritime observation, and linear-asset inspection missions, where battery systems impose repeated recovery, battery-swap, and relaunch cycles. Research on fuel-cell UAV configurations has reported multi-hour endurance capabilities that remain difficult for comparable battery-only airframes to match.
PEM fuel cells are the principal technology pathway because they can operate at relatively low temperatures and respond effectively to sustained cruise loads. Fuel-cell/battery hybrids broaden the addressable platform base by assigning the fuel cell to continuous cruise power and the battery to high transient loads during takeoff, climb, hover, or rapid maneuvering. That division is particularly important for rotary-wing and VTOL aircraft, where a fuel-cell-only design can be limited by peak-power requirements rather than stored energy.
The adoption constraint is increasingly logistical. Compressed hydrogen storage, refueling equipment, safety procedures, and field transport can outweigh the powerplant advantage for smaller fleets. The U.S. Defense Innovation Unit's HyTEC program addresses this bottleneck through expeditionary hydrogen-generation prototypes intended to support fuel cell UAV operations in austere locations [2]Defense Innovation Unit, HyTEC Expeditionary Hydrogen Generation. diu.mil. Its relevance extends beyond defense: if portable generation and refueling systems become operationally practical, remote inspection, emergency response, and logistics operators could deploy hydrogen fleets without depending on a fixed industrial-gas network.
GMI Analyst View
We estimate that the market's expansion through 2035 will be governed less by a contest between hydrogen and batteries in laboratory performance than by the conversion of endurance into deployable mission economics. Hydrogen's energy-density advantage supports fewer interruptions in long-duration missions, but its value is captured only when operators can source, transport, and refuel hydrogen without creating a new logistics burden. The strongest near-term demand therefore sits with customers that can absorb infrastructure costs or already operate in controlled, high-value mission environments, particularly defense and critical infrastructure.
The more consequential shift is likely to occur as power-system integration and fuel availability improve together. Hybrid architectures make hydrogen usable in aircraft that cannot tolerate slow fuel-cell load response, while expeditionary generation programs test whether the supply constraint can move closer to the point of use. Suppliers able to integrate the stack, storage system, energy-management controls, and refueling workflow will be better positioned than component vendors offering endurance gains without a credible operating model.
Key Drivers
Long-endurance mission requirements are becoming procurement requirements.
Fuel-cell power is most compelling when an aircraft must remain airborne long enough for a mission to be disrupted by battery changes. Doosan Mobility Innovation's DJ25 hydrogen VTOL is specified for 330 minutes of flight and a 450 km range, demonstrating the endurance envelope available to VTOL platforms designed around hydrogen storage and efficient cruise. Aurora Flight Sciences' SKIRON-XLE similarly targets long-range reconnaissance with a fuel-cell power system and planned endurance exceeding five hours [3]Aurora Flight Sciences, Hydrogen Fuel Cell Powered Unmanned Aircraft Systems. aurora.aero. These aircraft illustrate why hydrogen is gaining relevance in ISR, corridor inspection, maritime monitoring, and disaster assessment: the operational gain is continuous coverage rather than an incremental improvement in flight time.
Defense programs are reducing the gap between demonstration and field support.
The U.S. Navy's solicitation for lightweight, modular fuel-cell systems identifies range, endurance, payload capacity, performance, and reliability as the desired improvements for unmanned aircraft [4]U.S. Navy, Modular Fuel Cell Systems for Unmanned Aircraft. navy.mil. HyTEC complements that aircraft-level requirement by examining fuel production at forward operating locations. Together, these programs support a demand model in which aircraft procurement and fuel logistics mature in parallel. That is important because defense agencies can fund qualification, safety validation, and ground support that commercial users may not be able to finance independently.
PEM and hybrid-system engineering is improving the usable power envelope.
Research on PEM fuel-cell/battery UAV systems has shown that energy-management strategies can meet varying power demand while protecting the fuel cell from high transient loads. For fuel-cell UAV developers, the implication is that performance differentiation increasingly rests on control software, thermal management, storage packaging, and balance-of-plant weight, not only on stack output. H3 Dynamics offers fuel-cell systems tailored to unmanned aviation across power classes, while Horizon Fuel Cell Technologies supplies lightweight systems spanning 100 W to 40 kW [5]U.S. Department of Energy, Fuel Cell Systems for Transportation and Aviation Applications. energy.gov. These suppliers allow airframe manufacturers to shorten development cycles, but they also create competition around integration expertise.
Hydrogen investment and zero-emission operating requirements widen the commercial case.
Global spending on low-emissions hydrogen projects rose to USD 4.3 billion in 2024, according to the International Energy Agency, with further expansion expected as projects progress from announcements to investment decisions [6]International Energy Agency, Global Hydrogen Review 2024. iea.org. Much of this capital is not directed to UAVs, but it can improve the broader availability of production, storage, and handling capability. For infrastructure operators, hydrogen UAVs may become practical first at sites that already handle hydrogen or where emission, noise, and endurance constraints make combustion-engine alternatives unattractive.
BVLOS authorization can convert endurance into fleet productivity.
EASA's 2025 certification decision provides a pathway for certified UAS operations, although the commercial usefulness of that pathway depends on aircraft certification, operating approvals, and mission-specific risk controls [7]European Union Aviation Safety Agency, Unmanned Aircraft Systems Certification Framework. easa.europa.eu. As regulatory conditions permit longer and more remote operations, an aircraft's ability to remain airborne becomes directly connected to billable coverage per crew, per launch location, and per day. The commercial opportunity is therefore strongest where the avoided cost of repeated sorties exceeds the additional cost of hydrogen infrastructure.
Key Restraints
Hydrogen infrastructure remains a fixed-cost hurdle.
A fuel-cell UAV must carry or access hydrogen that meets safety, purity, storage, and operating requirements. High-pressure storage increases aircraft complexity, while small fleet operators may lack the throughput needed to justify a dedicated supply arrangement. The problem is acute for commercial fleets with dispersed deployment locations: an endurance advantage cannot be monetized if cylinders, refueling equipment, and trained handling procedures must follow every mission. This favors centralized industrial sites and defense users over low-utilization, geographically fragmented fleets.
Certification maturity trails technical experimentation.
The FAA and EASA formed a Hydrogen Technologies Working Group to address airworthiness and certification considerations for hydrogen-powered aircraft [8]Federal Aviation Administration, Unmanned Aircraft Systems (UAS). faa.gov. EASA's 2024 hydrogen certification workshop identified the need to mature certification specifications and harmonize approaches for new hydrogen technologies. For UAV operators, this uncertainty affects more than approval timing. It influences insurer confidence, investment in fleets and ground infrastructure, and the extent to which an aircraft can operate outside segregated airspace. Platforms may demonstrate technical endurance well before they can support scaled commercial missions.
Reliability requirements create a difficult integration burden.
Fuel-cell stacks must operate through changing temperature, humidity, vibration, altitude, and load conditions. Hydrogen storage and thermal-management systems add components that must meet aerospace weight and reliability requirements. The Navy's stated focus on improving performance and reliability demonstrates that defense interest does not eliminate the remaining qualification challenge. Suppliers must show sustained operating durability rather than isolated endurance demonstrations, especially where maintenance access is limited.
GMI Analyst View
Our analysis indicates that the market's constraint profile is uneven: the endurance proposition is already persuasive for specific mission classes, whereas infrastructure and certification remain system-level barriers. This distinction matters because lower fuel-cell costs alone will not unlock broad commercial adoption. An operator needs an approved aircraft, a compliant operating concept, and a hydrogen supply arrangement that does not erode the productivity gained from longer flight time.
Defense demand should continue to act as the principal bridge between technical capability and broader market adoption. Programs such as HyTEC address the fuel-supply problem at the same time that military users are specifying improved range and endurance. Commercial demand will follow selectively, beginning with operations where assets are geographically concentrated, downtime is costly, and a single long sortie substitutes for several battery missions. The decisive competitive advantage will come from reducing total mission friction, rather than maximizing endurance in isolation.
Fuel Cell UAV Market Segment Analysis
By UAV Type
Fixed Wing UAVs generated USD 945.96 million in 2025 and are projected to reach USD 3,893.70 million by 2035, expanding at a 15.48% CAGR. Fixed-wing aircraft benefit most directly from fuel-cell power because aerodynamic lift reduces the continuous energy demand associated with cruise. Micro platforms remain constrained by tank volume, while small 5–25 kg aircraft offer a more workable balance between storage mass, payload, launch flexibility, and endurance. Medium 25–150 kg systems address tactical ISR and long-duration surveillance, where the ability to maintain coverage can outweigh higher acquisition and support costs.
Rotary Wing UAVs
Rotary Wing UAVs are projected to rise from USD 651.78 million in 2025 to USD 2,102.35 million by 2035 at a 12.67% CAGR. Vertical lift is essential for close-range inspection, emergency response, and confined-site deployment, but hovering imposes a persistent energy penalty. This makes rotary-wing fuel-cell adoption dependent on hybridization and careful sizing of the fuel-cell, battery, and storage system. Doosan's DS30W demonstrates the commercial potential of the category, with up to 120 minutes of flight time and an 80 km operating range [9]Doosan Mobility Innovation, Hydrogen Fuel Cell Drone Solutions. dmi.aero. Multirotors dominate unit demand, while single-rotor and heavy-lift designs offer a path to higher payload applications where fuel-cell energy density becomes more valuable.
Hybrid VTOL UAVs
Hybrid VTOL UAVs are the fastest-growing UAV type, increasing from USD 347.73 million in 2025 to USD 1,624.76 million by 2035 at a 16.93% CAGR. The category combines vertical deployment with wing-borne cruise, allowing fuel cells to provide the greatest benefit after transition. Light VTOL systems address rapidly deployable surveillance and light logistics, while heavy VTOL aircraft are better suited to high-value cargo, longer inspection routes, and military missions launched from unprepared sites. The DJ25's 450 km range illustrates the role of hydrogen in making the fixed-wing portion of a VTOL mission commercially meaningful.
By Range
Short Range (<50 km)
Short Range (<50 km) is the largest range segment, rising from USD 904.58 million in 2025 to USD 3,132.91 million by 2035 at a 13.49% CAGR. Inspection, perimeter security, public safety, and agricultural missions can occur within this radius, but battery competition is strongest because recharging infrastructure may be accessible. Hydrogen competes here primarily on time aloft and reduction in sortie interruptions.
Medium Range (50–200 km)
Medium Range (50–200 km) grows from USD 698.63 million in 2025 to USD 2,703.10 million by 2035 at a 14.76% CAGR. This range band is a practical fit for fixed-wing survey, utility-corridor inspection, and tactical reconnaissance. It is long enough for battery limitations to become operationally material, yet often compatible with ground-station control concepts. Aurora's SKIRON-XLE, with a 75 km command-and-control link range, is aligned with this mission profile.
Long Range (>200 km)
Long Range (>200 km) records the highest range CAGR at 18.19%, increasing from USD 342.25 million in 2025 to USD 1,784.79 million by 2035. Persistent ISR, maritime patrol, border observation, and long-distance logistics offer the strongest rationale for hydrogen because repeated battery recovery cycles can undermine mission continuity. H3 Dynamics' HYWINGS is specified for up to 10 hours of endurance and 500 km range, providing an example of the operating envelope sought in this segment.
By Power System Type
Hydrogen Fuel Cell Systems
Hydrogen Fuel Cell Systems are estimated to represent approximately 60% of market value in 2025, or about USD 1,167 million, and approximately 65% by 2035, or about USD 4,953 million. PEM fuel cells account for the largest share because they are commercially established across a broad power range and fit sustained-cruise mission profiles. H3 Dynamics' Aerostak systems and Horizon's lightweight fuel-cell portfolio illustrate the growing availability of UAV-oriented power systems.
SOFC systems remain a smaller, specialized option. Their relevance lies in potential fuel flexibility for defense use cases rather than broad commercial deployment. The Naval Research Laboratory's Stalker demonstration, conducted with Lockheed Martin and Northwest UAV, advanced hydrogen technology concepts for Marine Corps applications and indicates continuing interest in alternative fuel-cell configurations for long-endurance unmanned systems.
Hybrid FC+Battery
Hybrid FC+Battery systems are positioned for the strongest growth within fuel-cell power systems. Peer-reviewed work on hybrid UAV energy management shows how battery support can absorb transient loads while the fuel cell supplies sustained power. This arrangement is central to commercializing fuel-cell propulsion in multirotors and VTOL aircraft, where the platform cannot sacrifice rapid power response.
Battery-Electric Systems
Battery-Electric Systems account for an estimated 40% of market value in 2025, or approximately USD 778 million. Li-ion and LiPo systems remain competitive in short-range operations because their infrastructure is simpler and their airframes can be less complex. Their inclusion reflects competitive overlap rather than an equivalent fit for every mission. As aircraft range, payload, and persistence requirements increase, the battery-only proposition becomes more dependent on multiple sorties and ground support.
By End-User Industry
Military & Defense
Military & Defense is the largest end-user segment, increasing from USD 865.49 million in 2025 to USD 3,475.09 million by 2035 at a 15.19% CAGR. ISR is the leading application because persistent airborne observation has direct tactical value. Training and target practice, EW and communications relay, SAR, and other defense uses benefit from fuel-cell endurance where aircraft must remain operational over extended periods. Procurement programs also support early qualification of storage, safety, and logistics systems that can later be adapted for commercial fleets.
Commercial & Industrial
Commercial & Industrial is the fastest-growing end-user segment, rising from USD 651.61 million in 2025 to USD 2,987.36 million by 2035 at a 16.71% CAGR. Asset inspection and maintenance lead demand because a long-endurance aircraft can inspect more linear infrastructure, renewable assets, or industrial sites per launch. ISS Aerospace's SENSUS 6 combines a 2.4 kW fuel-cell module with an 8 kg payload capability and 100 minutes of flight time, supporting applications where sensor payload and daily coverage matter together. Mapping and surveying, security surveillance, delivery and logistics, agricultural operations, and environmental monitoring each offer addressable demand, but their conversion rate will vary with BVLOS permissions and fueling access.
Civil/Government
Civil/Government grows from USD 428.37 million in 2025 to USD 1,158.36 million by 2035 at a 10.66% CAGR. Public safety and emergency response lead the segment because long-duration aerial coverage can improve disaster assessment, search coordination, and remote-area observation. Government adoption remains slower than commercial and defense demand because public procurement cycles are longer and operations may require greater certification assurance in populated or non-segregated airspace.
GMI Analyst View
We estimate that Hybrid VTOL UAVs will reshape the product mix even though Fixed Wing UAVs retain the largest revenue base. Fixed-wing platforms best exploit fuel-cell cruise efficiency, but their operating model is not suitable for every launch site. Hybrid VTOL designs remove that site-access constraint while retaining enough wing-borne flight to monetize hydrogen's energy-density advantage; this explains their 16.93% projected CAGR relative to 15.48% for fixed-wing and 12.67% for rotary-wing UAVs.
The fastest-growing commercial opportunity is not simply "long range." It is the set of missions in which a longer sortie changes the labor, launch, and coverage economics. A 500 km-capable fixed-wing platform may be valuable for a corridor survey, while a hybrid system may be more valuable for an inspection site that lacks a runway and requires bursts of vertical power. Platform developers should therefore align propulsion architecture with mission cadence and launch conditions. Suppliers that treat fuel cells as interchangeable power modules will be exposed where integration quality, thermal control, and peak-load management determine aircraft utility.
Fuel Cell UAV Market Regional Analysis
North America
North America is the largest market, growing from USD 740.27 million in 2025 to USD 3,009.62 million by 2035 at a 15.33% CAGR. The U.S. accounts for USD 674.20 million in 2025 and is projected to reach USD 2,762.53 million by 2035, supported by defense procurement, domestic unmanned-systems manufacturing, and hydrogen technology development. Canada rises from USD 66.07 million to USD 247.09 million over the same period. U.S. demand is shaped by the interaction of DoD programs, airworthiness work, and domestic supply-chain policy rather than by commercial fleet demand alone.
Federal policy reinforces this positioning. Executive Order 14307, issued in June 2025, directed federal agencies to prioritize domestically manufactured drones [10]The White House, Executive Order 14307 on Prioritizing Domestic Drone Manufacturing. whitehouse.gov. The order does not guarantee fuel-cell UAV procurement, but it increases the importance of domestic manufacturing and supply-chain traceability for companies seeking federal opportunities. The region also benefits from active hydrogen certification work through the FAA and EASA collaboration.
Europe
Europe expands from USD 511.93 million in 2025 to USD 1,892.08 million by 2035 at a 14.24% CAGR. Germany is the largest national market, increasing from USD 146.18 million to USD 606.94 million at a 15.57% CAGR. The UK grows from USD 113.94 million to USD 443.84 million, France from USD 85.94 million to USD 316.09 million, Italy from USD 63.03 million to USD 214.93 million, and Spain from USD 41.60 million to USD 132.37 million. Europe's opportunity rests on the combination of hydrogen-policy investment, a large industrial inspection base, and a comparatively structured regulatory pathway for UAS operations.
EASA's certification framework and hydrogen roadmap matter because they provide an institutional route for operators and manufacturers to convert technical demonstration into regulated deployment. The region also contains application-level references such as ISS Aerospace, whose fuel-cell UAS work is directed toward infrastructure, security, environmental, and defense missions.
Asia Pacific
Asia Pacific is the fastest-growing regional market, advancing from USD 386.32 million in 2025 to USD 1,735.46 million by 2035 at a 16.48% CAGR. China grows from USD 166.50 million to USD 771.62 million, India from USD 106.14 million to USD 520.38 million, Japan from USD 27.73 million to USD 120.30 million, South Korea from USD 43.99 million to USD 176.79 million, and Australia from USD 10.13 million to USD 37.31 million. China's hydrogen investment scale and India's domestic drone-manufacturing policy create different forms of market momentum: one improves the wider hydrogen ecosystem, while the other seeks to build local UAV production and demand.
India's Production Linked Incentive scheme for drones and drone components provides formal support for domestic manufacturing. The country's 17.50% projected CAGR is the highest among the listed national markets, but this growth remains sensitive to the execution of incentives, access to hydrogen infrastructure, and the ability of local suppliers to meet aerospace reliability requirements. South Korea is strategically important because Doosan Mobility Innovation has commercialized hydrogen multirotor and VTOL platforms, creating a regional reference point for product design and operating models.
Latin America
Latin America rises from USD 123.69 million in 2025 to USD 353.27 million by 2035 at an 11.28% CAGR. Brazil leads the region, growing from USD 51.94 million to USD 158.64 million, followed by Mexico at USD 41.21 million to USD 116.88 million and Argentina at USD 13.45 million to USD 33.24 million. Agriculture, mining, pipeline monitoring, and remote infrastructure inspection create a relevant mission base, but lower hydrogen availability and less consistent advanced-UAV procurement limit near-term scale. The commercial case will be strongest where a hydrogen aircraft can cover a large asset area from a centralized operating location.
Middle East and Africa
Middle East and Africa expands from USD 183.25 million in 2025 to USD 630.38 million by 2035 at a 13.41% CAGR. The UAE grows from USD 60.82 million to USD 228.95 million, Saudi Arabia from USD 54.48 million to USD 190.53 million, and South Africa from USD 21.97 million to USD 70.60 million. Demand is concentrated in defense, border monitoring, and inspection of energy and infrastructure assets. The region's hydrogen investment may improve long-term fuel availability, but UAV adoption will depend on whether projects create accessible domestic supply rather than export-oriented production alone.
GMI Analyst View
Our assessment suggests that regional leadership will remain divided between North America's procurement-led scale and Asia Pacific's faster policy- and manufacturing-led expansion. North America has a more established defense demand architecture and active federal programs that address both airframe performance and expeditionary hydrogen supply. That structure can support larger initial contracts, although order timing will remain dependent on procurement priorities and qualification schedules.
Asia Pacific's 16.48% projected CAGR reflects a different route to expansion. India's 17.50% growth outlook is linked to domestic drone manufacturing incentives, while South Korea offers a tangible commercialization reference through Doosan's hydrogen UAV portfolio. The commercial implication is that global suppliers cannot apply one go-to-market model across regions: defense-aligned U.S. programs require domestic-production credibility and qualification depth, whereas Asian opportunities may reward local partnerships, manufacturing localization, and service models that solve fueling access alongside aircraft supply.
Fuel Cell UAV Market Share & Competitive Landscape
The competitive structure combines defense-integrated aircraft manufacturers, specialized fuel-cell developers, and emerging UAV integrators. AeroVironment holds the largest authorized share at 17.57% in 2025, followed by Lockheed Martin at 14.36%, Doosan Mobility Innovation at 7.58%, and Ballard Power Systems at 4.36%. Market position is influenced by more than propulsion capability. Defense relationships, airworthiness experience, payload integration, hydrogen-storage qualification, and access to refueling infrastructure all affect a supplier's ability to convert demonstrations into fleet contracts.
AeroVironment, Inc.
AeroVironment, Inc. combines an established U.S. defense UAS position with access to procurement channels relevant to persistent surveillance and tactical missions. The company reported FY2025 revenue of USD 820.6 million and bookings of USD 1.2 billion, indicating the scale of its broader uncrewed-systems franchise. Its principal advantage in fuel-cell UAVs is the ability to integrate a new propulsion architecture into a customer base that already values mission endurance and reliability.
Doosan Mobility Innovation
Doosan Mobility Innovation is among the most visible dedicated hydrogen-UAV participants. Its DS30W multirotor and DJ25 VTOL platforms demonstrate commercial productization across two distinct aircraft architectures. Doosan's powerpack products also strengthen its position as a propulsion-system supplier, although continued scale-up depends on managing the capital intensity and service requirements associated with hydrogen operations.
Elbit Systems Ltd.
Elbit Systems Ltd. brings an established tactical and MALE UAS portfolio, including long-endurance platforms relevant to the same defense mission set targeted by fuel-cell UAVs. Its Hermes product family demonstrates the persistent ISR performance standard against which hydrogen-powered alternatives must compete. Elbit's strategic relevance is therefore not limited to direct fuel-cell deployment; its defense relationships and airframe capability position it to adopt alternative propulsion where mission and certification requirements justify the change.
Aurora Flight Sciences
Aurora Flight Sciences provides Boeing with a direct hydrogen-UAV development position through the SKIRON-XLE. The aircraft's intended long-endurance reconnaissance role makes it one of the clearest examples of a defense-oriented prime applying fuel-cell propulsion to a small-UAS platform. Aurora's value lies in combining fuel-cell integration with advanced aircraft development and Boeing's broader aerospace manufacturing and certification resources.
Horizon Fuel Cell Technologies
Horizon Fuel Cell Technologies supplies lightweight fuel-cell systems across a broad output range. Its portfolio is relevant to airframe developers seeking to procure propulsion systems rather than develop stacks internally. The company's competitive position depends on power-to-weight performance, system reliability, and the extent to which it can support integration, testing, and after-sales technical requirements.
Lockheed Martin Corporation
Lockheed Martin Corporation has experience with long-endurance UAS and hydrogen technology demonstrations. The Naval Research Laboratory's work with Lockheed Martin and Northwest UAV on the Stalker platform highlights the company's participation in maturing hydrogen solutions for Marine Corps use. Lockheed Martin's established defense-program capability provides an advantage in environments where security, durability, and systems integration are as important as aircraft endurance.
The Boeing Company
The Boeing Company participates principally through Aurora Flight Sciences. Boeing's role adds manufacturing, materials, and aerospace-development capabilities that can support Aurora's transition from fuel-cell prototype activity to military customer programs. Its competitive influence is therefore tied to the commercial progress of its subsidiary rather than a separate fuel-cell UAV product line.
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