The Eviation Alice and the all-electric commuter airplane that actually flew

The Eviation Alice is a nine-passenger, all-electric commuter airplane that completed its first flight on September 27, 2022, becoming the largest all-electric fixed-wing aircraft to ever fly. Built by Eviation Aircraft in Arlington, Washington, Alice targets short-haul regional routes under 250 nautical miles where battery-electric propulsion offers up to 70% lower operating costs than conventional turboprops.

What Is the Eviation Alice?

Alice is a fixed-wing, all-electric commuter aircraft designed to carry nine passengers on regional hops. It occupies roughly the same market space as a Cessna 408 SkyCourier or Pilatus PC-12 — connecting small cities separated by 100 to 250 nautical miles.

The airplane’s first flight took place at Grant County International Airport in Moses Lake, Washington. The flight lasted eight minutes, a modest duration that nonetheless marked a milestone. Every new propulsion technology in aviation history started with a short hop. The Wright Flyer flew for 12 seconds. The first turbojet flight in the Heinkel He 178 lasted about six minutes. Eight minutes for a nine-seat electric commuter fits the historical pattern.

How Does Alice’s Electric Propulsion Work?

Power comes from two magniX Magni650 electric propulsion units mounted on the tail, each producing 850 shaft horsepower. magniX has established credibility in electric propulsion — they also powered the modified de Havilland Beaver that completed the first commercial electric aircraft flight in 2019.

The rear-mounted engine configuration is an intentional engineering choice. Placing both motors on the aft fuselage, flanking a conventional vertical stabilizer, produces a clean wing free of engine nacelles. No propwash disrupts control surfaces during asymmetric thrust situations. The wing is optimized purely for lift and efficiency — a critical advantage when every watt-hour of stored energy matters.

Why Is Battery Energy Density the Central Challenge?

The fundamental constraint of electric aviation is energy density, and the numbers are stark.

• Jet-A fuel: approximately 12,000 watt-hours per kilogram
• Best current lithium-ion cells: approximately 250–300 watt-hours per kilogram

That is a factor of 40 difference. This is not a gap that clever engineering alone can close — it is a physics wall that dictates what electric aircraft can and cannot do today.

Alice deals with this by accepting realistic limitations. The current published range target is 250 nautical miles with VFR reserves. That is not transcontinental, but it covers a surprisingly large number of existing commuter routes: Boston to Nantucket, Dallas to Austin, and hundreds of other city pairs in the 200-mile bracket currently served by fuel-burning turboprops.

What Are the Economics of Electric Commuter Flight?

The economic case is compelling. About 40% of all scheduled commuter flights in the United States cover routes under 300 nautical miles. These routes are disproportionately expensive to operate on a per-seat-mile basis because turboprop engines still burn significant fuel relative to their passenger count.

An electric drivetrain replaces fuel cost with electricity cost, which is dramatically cheaper and far more price-stable. Consider a practical example: a nine-seat commuter flying a 150-mile leg in a turboprop burns roughly 60 gallons of fuel, costing approximately $400 one way. Alice would consume the electrical equivalent of roughly $30 to $40 of energy for the same trip.

Eviation’s published estimates suggest Alice could reduce direct operating costs by up to 70% compared to a conventional turboprop on equivalent routes. That figure assumes mature battery prices, established maintenance procedures, and charging infrastructure that does not yet exist at scale. Even at a more conservative 40% reduction, the impact on regional operators running thin margins would be transformational.

Cape Air, one of the largest commuter networks in the United States, has placed an order, viewing Alice as a potential replacement for their aging Cessna 402 piston fleet. DHL has also signed on for a cargo variant called Alice eCargo for short-haul package delivery — a smart application since cargo has no range anxiety concerns.

What Are the Biggest Technical Obstacles?

Battery weight is the most obvious challenge. Alice has a maximum takeoff weight of approximately 16,600 pounds, with batteries consuming a significant portion of that figure. Every pound of battery added increases range but removes a passenger seat or a bag. This trade-off is far more punishing than with liquid fuel, where energy density keeps the weight penalty manageable.

Charging time presents an operational bottleneck. Refueling a turboprop takes 10 minutes. Charging a battery pack large enough to fly 250 nautical miles will take meaningfully longer. Eviation has discussed 30-minute fast charging, but this is optimistic and depends on battery chemistry, thermal management, and charger availability. For airlines aiming to maximize aircraft utilization, charging time directly reduces revenue per aircraft per day.

Battery thermal management is where much of the real engineering complexity lives. The system must monitor thousands of individual cells, maintain safe temperature and voltage windows, balance charge across modules, and do all of this in demanding operating environments. Thermal runaway in lithium-ion batteries is a well-documented failure mode that the FAA takes extremely seriously.

Eviation has designed a distributed battery architecture with multiple independent packs and redundant cooling systems. A failure in one module should not cascade to adjacent modules or result in simultaneous power loss to both motors — the same design philosophy behind twin-engine conventional aircraft.

Where Does FAA Certification Stand?

Alice is being certified under 14 CFR Part 23 (normal category airplanes). The FAA does not yet have a fully mature certification framework for electric propulsion systems at this scale. Special conditions have been issued, but the process is slower and less predictable than certifying conventional powerplants because failure modes, thermal management requirements, and energy storage safety standards are still evolving.

The certification timeline has slipped from an original target of 2024–2025. Current projections suggest a type certificate no earlier than late 2027, with 2028 being a realistic possibility. This is not unusual for novel aircraft programs — the HondaJet took over two decades from concept to certification, and the Eclipse 500 went through bankruptcy before reaching customers.

How Would Electric Aircraft Change the Pilot Experience?

Flying an electric airplane differs from conventional aircraft in several meaningful ways:

• No mixture control to manage
• No separate propeller RPM adjustments
• No carburetor heat
• Near-instantaneous power response, similar to a jet but without spool-up time
• Torque available from zero RPM, changing takeoff technique, go-around response, and energy management on approach

Alice features a fully glass cockpit with fly-by-wire flight controls. The battery management system is deeply integrated with the flight control system — if a battery module degrades or overheats, the system redistributes load and adjusts available power automatically, without requiring the pilot to diagnose cell-level failures during critical phases of flight.

Where Does Alice Fit in the Electric Aviation Landscape?

Alice is not the only fixed-wing electric airplane in development:

• Bye Aerospace eFlyer — two-seat electric trainer
• Pipistrel Velis Electro (now Textron) — certified for training in Europe
• Heart Aerospace ES-30 — a 30-seat hybrid-electric regional airliner under development in Sweden

Alice occupies a unique position as the largest all-electric airplane to have actually flown while targeting a genuine commercial mission beyond training circuits. It is not attempting to compete with Boeing 737s or Embraer E175s. It targets a specific market slice where battery range limitations align perfectly with operational requirements.

Why Does This Matter for Aviation’s Future?

The aviation industry faces mounting pressure to decarbonize. The International Civil Aviation Organization’s (ICAO) goal of net-zero carbon emissions by 2050 drives investment across the sector. Sustainable aviation fuel (SAF) addresses long-haul routes but remains expensive, supply-constrained, and still produces CO₂ at the point of combustion.

For short-haul routes, electric propulsion offers a fundamentally cleaner solution: no combustion, no direct emissions, and near-zero lifecycle emissions when charged from renewable electricity. Beyond environmental benefits, the operational simplicity of electric drivetrains — fewer moving parts, lower maintenance burden, quieter operations — represents genuine advantages that regional operators need.

The short-haul all-electric commuter category will exist, whether Eviation gets there first or another company does. The physics supports it for ranges under 300 miles. The economics demand it as fuel costs remain volatile and carbon regulations tighten.

Key Takeaways

• The Eviation Alice made its first flight on September 27, 2022, becoming the largest all-electric fixed-wing aircraft to fly, with two magniX Magni650 motors producing 850 SHP each.
• The 250-nautical-mile range target covers roughly 40% of existing U.S. commuter routes, with potential operating cost reductions of 40–70% versus turboprops.
• Battery energy density remains the core constraint — current lithium-ion technology offers about 1/40th the energy per kilogram of jet fuel, limiting range and payload.
• FAA type certification is expected no earlier than late 2027, with the regulatory framework for electric propulsion still maturing.
• Cape Air and DHL have placed orders, signaling real commercial interest in both passenger and cargo applications for short-haul electric flight.