Aircraft Electrification Market Size and Share
Aircraft Electrification Market Analysis by Mordor Intelligence
The aircraft electrification market stood at USD 10.00 billion in 2025 and is forecasted to climb to USD 19.02 billion in 2030, translating into a 13.72% CAGR. Multiple forces combine to accelerate this trajectory, including airline net-zero deadlines, steady breakthroughs in solid-state battery chemistry, and anticipated cost drops in silicon-carbide and gallium-nitride power semiconductors. Hybrid-electric demonstrators lower certification barriers while more-electric subsystems deliver immediate fuel-burn savings across narrow-body fleets. Defense procurement for low-acoustic ISR platforms further broadens the aircraft electrification market by rewarding designs that trade top speed for acoustic stealth. Early commercial deployments cluster around slot-constrained regional routes under 500 nautical miles, where battery energy density penalties are acceptable against lower maintenance and fuel outlays.[1]Source: Federal Aviation Administration, “Fueling Aviation’s Sustainable Transition (FAST) Grants,” faa.gov
Key Report Takeaways
- By technology, more-electric aircraft led with 53.20% revenue in 2024; fully-electric aircraft are projected to advance at a 20.45% CAGR through 2030.
- By platform, commercial aviation captured 45.65% of the aircraft electrification market share in 2024, whereas advanced air mobility is expected to post a 23.60% CAGR to 2030.
- By system, energy-storage solutions commanded 38.78% of the aircraft electrification market size in 2024, while power-conversion hardware is forecast to grow at a 19.04% CAGR.
- By power class, 500 to 1000 kW configurations controlled 43.60% of revenue in 2024; due to distributed-propulsion architectures, sub-100 kW designs should expand at 21.45% CAGR.
- By geography, North America accounted for 38.98% of 2024 revenue; Asia-Pacific exhibits the fastest regional CAGR at 17.40% through 2030.
Global Aircraft Electrification Market Trends and Insights
Drivers Impact Analysis
| Driver | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| Airline-fleet net-zero mandates accelerate e-propulsion | +2.2% | Global, first movers in Europe and North America | Medium term (2–4 years) |
| Solid-state and Li-metal packs surpassing 450 Wh/kg | +1.8% | Worldwide, production led by Asia-Pacific factories | Long term (4 years or more) |
| Military demand for low-acoustic ISR drones | +1.5% | North America and Europe, then allied markets | Short term (≤2 years) |
| Vertiport build-outs unlock urban air-mobility corridors | +0.9% | Major cities—especially in developed countries | Medium term (2–4 years) |
| Slot-constrained regional hubs push less than 500 nm electric legs | +0.6% | Europe and North America | Medium term (2–4 years) |
| Power-semiconductor (SiC/GaN) cost curve halves by 2028 | +0.4% | Global, manufacturing concentrated in Asia | Long term (4 years or more) |
| Source: Mordor Intelligence | |||
Airline Fleet Net-zero Mandates Accelerate E-propulsion
Airlines now face binding regional targets that penalise fossil-fuel burn, pushing purchasing departments to issue requests for aircraft with measurable emissions improvements. The European ReFuelEU rule and IATA’s global 2050 net-zero pledge create predictable demand over the next equipment-replacement cycle. Carbon-pricing schemes influence route-profitability models, making electrically powered 19- to 30-seat regional aircraft cost-competitive on sub-500 nautical-mile legs. The FAA FAST Grant channelled USD 291 million toward electric-propulsion infrastructure, easing airport retrofits. Aircraft OEMs leverage these policy signals when allocating R&D budgets, reducing commercial-risk premiums attached to battery and inverter programs.
Solid-state and Li-metal Packs Surpass 450 Wh/kg (2027 +)
Laboratory prototypes now eclipse 500 Wh/kg, tripling the energy density of 2023 lithium-ion packs. Solid-state electrolytes mitigate thermal-runaway concerns and unlock higher-voltage architectures, simplifying certification steps around thermal containment. CATL’s planned 8-tonne electric aircraft leverages this chemistry to target 2028 commercial entry, indicating that cell manufacturing scale should coincide with the next tranche of regional-aircraft development. Energy-density gains extend viable stage lengths from urban-air-mobility hops to 200-400 nautical-mile turboprop corridors, broadening the addressable aircraft electrification market.
Military Demand for Low-acoustic ISR Drones
Defence research refocuses on survivability in contested airspace where engine noise is a primary detection vector. DARPA’s XRQ-73 demonstrates how coupling electric motors with high-lift airframes yields near-silent loiter at low altitude.[2]Source: Defense Advanced Research Projects Agency, “DARPA XRQ-73 Program,” darpa.mil General Atomics’ GHOST platform underlines how acoustic-stealth prototypes transition quickly into serial production once mission utility is proven. Military adoption delivers spill-over effects: propulsion suppliers amortise early development costs across defence and commercial portfolios, accelerating technology learning curves for the broader aircraft electrification market.
Vertiport Build-outs Unlock Urban Air-mobility Corridors
Infrastructure sets the practical ceiling on utilisation rates for passenger eVTOL fleets. Beta Technologies doubled its charging network to 46 sites, providing the nascent aircraft electrification market with proof of a viable operational backbone. Municipal planning agencies in Los Angeles, Paris, and Singapore have approved early vertiport blueprints, signalling that zoning and noise-regulation hurdles are surmountable within dense metro areas. Private-sector developers co-locate megawatt chargers with logistics hubs, laying a multi-use foundation that supports cargo drones alongside passenger craft. Network density is poised to move from experimental to commercially bankable by 2028, pulling aircraft orders forward.
Battery Energy Gap vs. Jet-A (More than 30x Lower)
Jet fuel contains roughly 12,000 Wh/kg compared with today’s 250-300 Wh/kg lithium-ion cells, producing a 40x energy delta that persists even if next-gen packs deliver 500 Wh/kg. The penalty magnifies on weight-sensitive cargo missions, restricting practical economics to passenger and ISR profiles where payload trade-offs are tolerable. Aircraft designers must therefore tailor airframes around narrow mission bands rather than universal utility, segmenting the aircraft electrification market into multiple micro-niches. Hydrogen fuel cells promise relief but introduce cryogenic-storage complexity that pushes commercial service later than the current forecast window.
Sparse MW-class Charging at Secondary Airports
Megawatt chargers call for grid infrastructure well beyond the capacity of many regional airports, making turn-time scheduling a critical constraint. Installation costs between USD 500,000 and USD 2 million per unit deter budget-strapped operators, particularly in Latin America and parts of Africa. Utilities highlight transformer lead times exceeding 24 months, elongating project cycles, and tempering the aircraft electrification market’s near-term expansion. Government grants present partial solutions but frequently prioritize urban nodes over rural gateways, limiting early-route flexibility for electric fleets.[3]Source: Beta Technologies, “Charging Network Expands,” beta.team
Segment Analysis
By Technology: Incremental to Fully Electric
More-electric designs replaced hydraulic and pneumatic subsystems with electrical analogues, claiming 53.20% of 2024 revenue and cementing their role as the transition platform within the aircraft electrification market. Airlines appreciate the fuel-burn downturn without incurring the certification leap of a complete propulsion change. Hybrid-electric prototypes such as RTX’s 2 MW Dash 8-100 demonstrator illustrate how parallel powertrains halve climb-phase fuel draw. Over the forecast, the aircraft electrification market size attributable to fully electric platforms grows fastest as eVTOL and 19-seat models move from prototyping to type certification.
Fully electric aircraft will lead the growth curve at a 20.45% CAGR through 2030, validated by order books exceeding 2,200 units for Electra and Heart Aerospace combined. Although battery mass remains a limiting factor, flight profiles under 250 nautical miles fit the current performance envelope. Supply-chain learning across batteries, thermal management, and high-voltage cabling further compresses unit cost curves, encouraging airlines to add supplemental electric capacity instead of older turboprops.
Note: Segment shares of all individual segments available upon report purchase
By Platform: Commercial still Rules, AAM Surges
Commercial aviation retained 45.65% revenue share during 2024, buoyed by regulatory clarity and operator familiarity with more-electric architectures. Auxiliary-power-unit replacement and electric taxiing push immediate savings into airlines’ quarterly statements. Regional carriers experiment with hybrid-electric conversions to unlock thin routes, supporting a steady base for the aircraft electrification market despite long-haul segments remaining jet-fuel dependent.
Advanced air mobility registers the highest platform-level CAGR at 23.60%. Urban planners endorse eVTOL corridors as congestion relief tools, and regulators finalised initial airworthiness frameworks in the United States and the European Union by 2025. Defence ISR drones feed adjacent demand through shared supply chains for silent-propulsion motors and low-drag battery packs, raising the aircraft electrification market’s addressable volume without cannibalising existing civil segments.
By System: Batteries Rule Spend, Power Electronics Accelerate
Energy-storage hardware absorbed 38.78% of 2024 spending, underscoring how battery cost and weight dictate airframe economics. Solid-state prototypes crossing 450 Wh/kg could swing cost-per-seat-mile favourably against turboprops, positioning energy-storage as the fulcrum around which the aircraft electrification industry pivots.
Power-conversion subsystems are poised for a 19.04% CAGR as silicon-carbide inverters elevate power density and cut cooling-mass budgets. Collins Aerospace prototypes scale from 200 kW motors for regional twins to 1 MW units for blended-wing demonstrators. High-voltage distribution harnesses become certification focal points; hence, avionics suppliers invest heavily in arc-fault detection and galvanic-isolation technologies that bake reliability into new electric architectures.
By Power Class: Dual-Track Evolution
The 500 to 1000 kW bracket commanded 43.60% of 2024 turnover, servicing regional-aircraft concepts and larger eVTOLs that demand megawatt-scale bursts for vertical climb. OEM roadmaps cluster in this range because battery mass aligns acceptably with cabin layouts and regulatory emergency-landing margins.
Sub-100 kW designs deliver the sharpest expansion at 21.45% CAGR as distributed propulsion lifts into mainstream engineering practice. Electra’s EL9 proves that nine small motors can generate blown lift, enabling take-off rolls of 150 feet while cruising at regional-airliner speeds. Redundancy benefits translate into higher dispatch reliability and allow mission-critical drones to fulfil ISR or medical-logistics tasks irrespective of single-engine-out considerations, swelling the addressable aircraft electrification market size within this power band.
Geography Analysis
North America retained 38.98% revenue in 2024, underpinned by the FAA’s early issuance of special-conditions airworthiness standards for eVTOLs and hybrid regional transports. US state incentives cover battery-module plants in Connecticut and Washington, strengthening domestic supply resilience. Canada’s Sustainable Aviation Technology program co-funds hydrogen-combustion demonstrations that share component commonality with hybrid-electric architectures, further anchoring regional supply networks.
Europe codifies a complementary ruleset through EASA, creating mutual-recognition pathways with the FAA to shorten certification cycles. France funnels EUR 100 million (USD 117.69 million) into nine zero-carbon aircraft projects under the France 2030 banner, expanding the talent pool for megawatt-motor design. The United Kingdom’s Future of Flight plan targets routine eVTOL service by 2028, unlocking city-centre vertiport tenders and supporting the broader aircraft electrification market across the continent.
Asia-Pacific posts the fastest growth at 17.40% CAGR to 2030 on the back of battery-manufacturing economies of scale and urbanisation. CATL leverages automotive-sector tooling to fast-track aviation-grade cell production, while Japanese chipmakers supply gallium-nitride (GaN) wafers critical for 1 MHz inverter switching. Australian and New Zealand test ranges facilitate early flight trials with lower air-traffic congestion, shaving certification time for regional air-taxi models. Despite regulatory lags, manufacturing cost advantages, and policy enthusiasm around electric mobility, the region is a pivotal node within the aircraft electrification market value chain.
Competitive Landscape
The aircraft electrification market displays moderate concentration because legacy primes cooperate with niche propulsion start-ups rather than engage in direct product replacement battles. Airbus runs the EcoPulse hybrid demonstrator in partnership with Safran and Daher, allowing each firm to specialise while sharing risk. Boeing paused the X-66 truss-braced-wing programme and redirected resources toward sustainable aviation fuel research, signalling a strategic hedge that keeps electric options open without front-loading capital.
RTX splits investment between Pratt & Whitney and Collins Aerospace, equipping JetZero’s blended-wing demonstrator with nacelles, electric motor generators, and thermal-management kits valued at USD 1 billion over ten years. Honeywell broadens its ecosystem via joint ventures with DENSO for high-rpm motors and NXP for AI-enabled avionics, signalling that control-system sophistication is as pivotal as kilowatt output.
White-space opportunities cluster around megawatt charging, thermal management, and high-voltage connector hardware. Beta Technologies and Electrification Ventures race to build proprietary charging networks that could evolve into toll-road business models. Start-ups focusing on passive two-phase cooling solutions, such as Arctura and MicroCooling, attract venture backing because every incremental watt saved on cooling can be converted into payload. This multi-tier ecosystem reinforces steady yet diversified advances, positioning the aircraft electrification market for sustained innovation while avoiding the lock-in risks common to single-supplier segments.
Aircraft Electrification Industry Leaders
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Honeywell International Inc.
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Safran SA
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Rolls-Royce plc
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RTX Corporation
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Airbus SE
- *Disclaimer: Major Players sorted in no particular order
Recent Industry Developments
- July 2025: Electra partnered with the US Army through a USD 1.9 million Small Business Innovation Research (SBIR) contract to advance hybrid-electric powertrain and propulsion systems (HEPPS). This collaboration focuses on enhancing fuel efficiency, extending range, and enabling new mission capabilities for current and future Army aircraft by leveraging Electra’s expertise.
- May 2025: Vertical Aerospace and Honeywell expanded their partnership to bring the VX4 eVTOL to market. Under a USD 1 billion contract, they target at least 150 aircraft deliveries by 2030.
- March 2025: RTX’s Pratt & Whitney and Collins Aerospace joined JetZero to supply systems for a blended-wing-body demonstrator powered by PW2040 engines aimed at 50% fuel-burn reduction.
Global Aircraft Electrification Market Report Scope
| More-Electric Aircraft |
| Hybrid-Electric Aircraft |
| Fully Electric Aircraft |
| Commercial | Narrowbody |
| Widebody | |
| Regional Jets | |
| Business and General Aviation | |
| Commercial Helicopters | |
| Military | Fighter Jets |
| Transport Aircraft | |
| Special Mission Aircraft | |
| Military Helicopters | |
| Unmanned Aerial Vehicles (UAVs) | |
| Advanced Air Mobility |
| Power Generation |
| Power Distribution |
| Power Conversion |
| Energy Storage |
| Less than 100 kW |
| 100 to 500 kW |
| 500 to 1,000 kW |
| More than 1,000 kW |
| North America | United States | |
| Canada | ||
| Mexico | ||
| Europe | United Kingdom | |
| France | ||
| Germany | ||
| Russia | ||
| Rest of Europe | ||
| Asia-Pacific | China | |
| India | ||
| Japan | ||
| South Korea | ||
| Rest of Asia-Pacific | ||
| South America | Brazil | |
| Rest of South America | ||
| Middle East and Africa | Middle East | Saudi Arabia |
| United Arab Emirates | ||
| Israel | ||
| Rest of Middle East | ||
| Africa | South Africa | |
| Rest of Africa | ||
| By Technology | More-Electric Aircraft | ||
| Hybrid-Electric Aircraft | |||
| Fully Electric Aircraft | |||
| By Platform | Commercial | Narrowbody | |
| Widebody | |||
| Regional Jets | |||
| Business and General Aviation | |||
| Commercial Helicopters | |||
| Military | Fighter Jets | ||
| Transport Aircraft | |||
| Special Mission Aircraft | |||
| Military Helicopters | |||
| Unmanned Aerial Vehicles (UAVs) | |||
| Advanced Air Mobility | |||
| By System | Power Generation | ||
| Power Distribution | |||
| Power Conversion | |||
| Energy Storage | |||
| By Power Class | Less than 100 kW | ||
| 100 to 500 kW | |||
| 500 to 1,000 kW | |||
| More than 1,000 kW | |||
| By Geography | North America | United States | |
| Canada | |||
| Mexico | |||
| Europe | United Kingdom | ||
| France | |||
| Germany | |||
| Russia | |||
| Rest of Europe | |||
| Asia-Pacific | China | ||
| India | |||
| Japan | |||
| South Korea | |||
| Rest of Asia-Pacific | |||
| South America | Brazil | ||
| Rest of South America | |||
| Middle East and Africa | Middle East | Saudi Arabia | |
| United Arab Emirates | |||
| Israel | |||
| Rest of Middle East | |||
| Africa | South Africa | ||
| Rest of Africa | |||
Key Questions Answered in the Report
What is the current value of the aircraft electrification market and how fast is it growing?
The market is valued at USD 10.00 billion in 2025 and is forecasted to reach USD 19.02 billion by 2030, reflecting a 13.72% CAGR.
What battery-energy density milestone unlocks regional routes beyond 200 nautical miles?
Solid-state and lithium-metal packs crossing 450 to 500 Wh/kg, expected after 2027, would double today’s 250–300 Wh/kg baseline and enable 200–400 nautical-mile missions.
How large is the energy gap between batteries and jet fuel today?
Jet-A delivers roughly 12,000 Wh/kg versus 250 to 300 Wh/kg for current lithium-ion (Li-ion) cells—a 40x differential that narrows to 24x if 500 Wh/kg packs arrive later this decade.
How could rare-earth supply risks slow the market?
High-performance electric motors rely on neodymium and dysprosium magnets. Any export restriction or price spike can delay production schedules and raise system costs for OEMs.
How much funding have leading start-ups raised for hybrid-electric aircraft programmes?
Heart Aerospace secured USD 107 million in Series B financing, while Electra attracted USD 115 million together supporting order books exceeding 2,300 aircraft.
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