Eviation Alice and the all-electric commuter aircraft that actually flew

The Eviation Alice became the first all-electric commuter aircraft to fly on September 27, 2022, lifting off from Grant County International Airport in Moses Lake, Washington. Powered entirely by lithium-ion batteries and two magniX electric motors, the nine-passenger aircraft proved that battery-electric regional aviation is technically feasible. But the distance between a successful first flight and certified, revenue-generating service reveals the true state of electric aviation — promising, constrained, and years from the gate.

What Is the Eviation Alice?

Alice is a high-wing, fixed-wing commuter airplane designed for short regional routes of 100 to 250 nautical miles — the kind of hops currently served by Cessna Caravans and Beechcraft King Airs. Island routes, thin regional connections, short cargo feeders.

The propulsion system uses two magniX 650 electric motors, each producing roughly 850 shaft horsepower, mounted in a pusher configuration on the rear fuselage. This unusual placement keeps the wing aerodynamically clean and maximizes laminar flow. The airframe is all-composite — carbon fiber and advanced materials chosen specifically to offset the enormous weight penalty of the battery system.

Eviation’s core pitch: replace turboprop or piston engines with electric motors running off integrated battery packs, and operating costs per flight hour drop dramatically. No fuel. Far fewer moving parts than a turbine. Zero direct emissions.

How Heavy Are the Batteries?

This is the number that defines everything about electric aviation today. Alice’s battery system weighs approximately 8,200 pounds — roughly equal to the entire empty weight of a King Air 350. The total maximum takeoff weight is around 16,300 pounds, meaning approximately half the airplane’s weight is batteries before a single passenger boards.

The reason is energy density. Jet-A fuel contains about 43 megajoules per kilogram. The best lithium-ion batteries deliver about 0.9 megajoules per kilogram — a factor of nearly 50 to 1. Carrying the same energy as a turboprop in batteries would require 50 times the weight, which is why Alice’s range caps at around 250 nautical miles under optimal conditions.

Does 250 Miles of Range Actually Matter?

More than it might seem. Hundreds of regional routes in the United States alone fall under 200 miles. Cape Air operates Cessna 402s between Cape Cod, Nantucket, and Martha’s Vineyard on routes often under 100 nautical miles. DHL and other cargo carriers run short feeder routes well within Alice’s range envelope.

The economics reinforce the case. Eviation has claimed operating costs 60 to 70 percent lower than a comparable turboprop per flight hour. Even discounting that by half for real-world conditions, a 30 to 35 percent reduction on a commuter route is the difference between a route being profitable and being subsidized.

What Happened During the First Flight?

The September 2022 flight was deliberately modest: eight minutes in the air, a pattern altitude of 3,500 feet, and a max speed of about 160 knots. The airplane climbed, flew the pattern, and landed. But it validated the critical systems — motors, battery management, and fly-by-wire controls all performed as designed.

Where Does Certification Stand?

After that first flight, progress slowed considerably. Alice is being certified under 14 CFR Part 23 (normal category airplanes), but the battery system, electric motors, and power management architecture don’t fit neatly into existing certification standards.

The FAA has had to develop new special conditions for battery-electric propulsion, addressing questions that have no precedent:

How do you certify a battery pack for flight?
What replaces fuel tank failure analysis when your energy source is a lithium-ion cell subject to thermal runaway?
How do you define endurance reserves when battery performance degrades with temperature, age, and discharge rate differently than liquid fuel?

As of early 2026, Alice has not achieved type certification. Eviation has publicly targeted the 2027 to 2028 timeframe, though aviation certification timelines are famously optimistic.

How Does Alice Compare to eVTOL Aircraft?

Alice is in some ways more conservative and potentially more practical than the electric vertical takeoff and landing (eVTOL) aircraft from companies like Joby and Archer. Alice uses a conventional runway, avoids the enormously power-intensive hover problem, and flies more like a regular airplane. Its certification pathway, while novel, doesn’t require the FAA to invent an entirely new category the way powered lift does for eVTOL.

Yet Alice hasn’t attracted comparable investment. Eviation has raised approximately $600 million over its lifetime — significant, but dwarfed by the billions flowing into eVTOL companies. An electric airplane that takes off from a runway and flies 200 miles doesn’t capture imaginations like a flying taxi, even if it might reach paying passengers sooner.

Who Wants to Buy Alice?

Several operators have expressed interest:

Cape Air — early partner, interested in replacing its aging Cessna 402 fleet
DHL Express — signed a letter of intent for 12 aircraft for short-haul cargo
Global Crossing Airlines — indicated interest

However, letters of intent are not purchase orders, and purchase orders are not deliveries. Eviation needs to show customers a certified, production-ready airplane with demonstrated real-world performance data — not projections or simulations — to convert interest into firm commitments.

What Will Battery Technology Mean for Alice’s Future?

Lithium-ion energy density has been improving at roughly 5 to 8 percent per year over the last decade. At current rates, batteries by 2032–2033 might reach 300 to 350 watt-hours per kilogram (compared to roughly 260 today), extending Alice’s range to perhaps 350 nautical miles.

The bigger potential shift comes from solid-state batteries. Companies like QuantumScape and Solid Power are making progress, primarily for automotive applications. If solid-state batteries reach 500 watt-hours per kilogram — which some researchers consider achievable within the next decade — Alice’s successor could potentially reach 500 nautical miles, covering the vast majority of U.S. regional airline routes.

What About Charging Infrastructure?

A turboprop refuels in 15 minutes. Alice needs high-power charging stations at every airport it serves, with fast-charging taking approximately 30 minutes. For airlines running multiple daily rotations, those extra minutes cost one or two fewer flights per day per airplane — a direct revenue impact.

Beta Technologies has taken the approach of building its own charging network alongside aircraft development, recognizing that the airplane and the infrastructure are inseparable problems. Eviation has focused primarily on the aircraft, which is understandable given limited resources, but the charging question must eventually be answered.

Why Alice’s Conservative Design May Be Its Strength

Alice doesn’t try to reinvent how airplanes take off. It doesn’t require new air traffic control procedures or rooftop vertiports. It takes a proven mission profile — regional commuter flying — and electrifies the propulsion system. That’s the kind of incremental innovation aviation has historically adopted successfully. Turboprops replaced piston engines on regional routes. Jets replaced turboprops on longer routes. Each transition was evolutionary. Alice fits that pattern.

The real question is whether Eviation can survive long enough to reach certification and production. The company has been burning cash for years without revenue, the competitive landscape is intensifying, and capital markets for aviation startups have tightened considerably since 2021.

Why This Matters for Pilots

Electric commuter aviation could reconnect communities that lost regional air service because turboprop routes were uneconomical. A 100-mile commuter flight that costs $60 instead of $200 isn’t science fiction — it’s the math of lower operating costs applied to an underserved market. But realistic timelines suggest seven to ten years before electric commuter airplanes enter regular scheduled service. Certification, infrastructure, battery technology, and airline economics all have to align, and any one can be a bottleneck.

For deeper technical analysis, Aviation Week’s coverage of Eviation’s flight test program and Bjorn Fehrm’s work at Leeham News on electric aircraft economics are among the best resources available.

Key Takeaways

Eviation Alice flew on September 27, 2022, becoming the first all-electric nine-passenger commuter aircraft to take flight, proving the core technology works.
Battery weight is the defining constraint — at 8,200 pounds, batteries account for roughly half the aircraft’s maximum takeoff weight, limiting range to about 250 nautical miles.
Certification under 14 CFR Part 23 is ongoing, with the FAA developing new special conditions for battery-electric propulsion; type certification is targeted for 2027–2028.
Operating costs could drop 30–70 percent compared to turboprops on short regional routes, potentially making unprofitable commuter routes viable again.
Battery energy density improvements and solid-state technology will determine whether future versions of Alice can reach the 500-nautical-mile range needed to serve most U.S. regional routes.