The Eviation Alice and the all-electric commuter airplane that finally left the ground

The Eviation Alice is an all-electric, nine-passenger commuter airplane that completed its first flight on September 27, 2022, at Moses Lake, Washington. It represents the most serious fixed-wing electric aircraft program to date, backed by orders from DHL Express, Cape Air, and Global Crossing Airlines. Whether it becomes a production airplane depends on battery technology, charging infrastructure, and whether Eviation can survive long enough to finish certification.

What Is the Eviation Alice?

The Alice is a fixed-wing aircraft roughly the size of a Beechcraft 1900. It seats nine passengers with two crew, features a high wing and distinctive V-tail, and is powered by two magniX magni650 electric propulsion units, each producing approximately 850 shaft horsepower. Instead of turboprops, the aircraft carries an 8,200 kWh lithium-ion battery system that accounts for nearly half its maximum takeoff weight.

The target cruise speed is around 260 knots, competitive with turboprops in the same class. The target range is approximately 250 nautical miles, roughly Boston to New York.

Why Electric Propulsion Changes the Economics

Eviation claims the Alice can reduce direct operating costs by up to 70 percent compared to a turboprop on equivalent routes. The advantages are straightforward:

No jet fuel eliminates exposure to oil price volatility.
Electric motors have dramatically fewer moving parts than turbine engines, extending maintenance intervals and reducing costs.
The noise footprint is substantially lower, which is significant for community airports that have battled noise complaints for decades.

These economics are most compelling on short, high-frequency routes where fuel cost per seat mile is already painful on turboprops.

What the First Flight Actually Tells Us

The Alice’s inaugural flight lasted eight minutes. It climbed to 3,500 feet, flew a pattern, and landed. Every first flight is conservative — no one sends an experimental aircraft cross-country on day one. But eight minutes reveals the gap between where the technology actually stands and where the marketing materials suggest it stands.

For comparison, a Cessna 408 SkyCourier in the same general category carries up to 19 passengers roughly 1,000 nautical miles. The Alice targets half the passengers and a quarter of the range.

The Weight Problem That Won’t Go Away

The Alice has a maximum takeoff weight of approximately 16,800 pounds. The battery system alone weighs roughly 8,200 pounds — nearly half the airplane.

This creates a fundamental difference from conventional aircraft: fuel weight decreases as you fly, but batteries don’t get lighter as they discharge. Every takeoff is at max weight. Every landing is at max weight. That changes structural engineering, brake wear, descent planning, and approach procedures.

In practical terms, the 250-nautical-mile range shrinks further once you account for reserves, alternates, headwinds, holds, and diversions. The usable range in real-world airline operations will be shorter than the published number.

The Energy Density Gap

Battery energy density is the single most important variable in electric aviation’s future. The math is stark:

Lithium-ion cells today: ~250–300 Wh/kg
Jet fuel: ~12,000 Wh/kg
Raw disadvantage: roughly 40:1

Electric motors are three to four times more efficient than turbines at converting stored energy to thrust, which narrows the practical gap to roughly 10:1. Solid-state batteries could push cell-level density to 400–500 Wh/kg, which helps but doesn’t close the gap for anything beyond short-haul routes.

Who’s Ordering the Alice — and Why It Matters

The order book includes serious operators:

DHL Express: Letter of intent for 12 aircraft
Cape Air: Order for 75 aircraft
Global Crossing Airlines: Additional orders

Cape Air is particularly significant. Their existing route network in the northeastern United States consists largely of short hops between small New England airports and islands, many under 150 miles. Their current operations are almost purpose-built for what the Alice can do.

The magniX Propulsion System

magniX developed the Alice’s motors after first proving electric propulsion on retrofitted airframes, including a modified de Havilland Beaver and a Cessna 208 Caravan. The magni650 is a purpose-built aviation electric motor that integrates directly with a propeller — no gearbox required.

Fewer parts mean fewer failure modes. Electric motors deliver peak torque instantly, which gives the Alice potentially impressive takeoff performance.

A Fundamentally Different Flight Deck

The Alice uses a Honeywell avionics system adapted for electric operations. Instead of fuel flow gauges and fuel quantity indicators, pilots monitor battery state of charge, discharge rate, cell temperature, and power distribution.

The pilot manages an energy budget rather than a fuel budget. The implications for emergency procedures are significant:

You can’t dump batteries to reduce weight for an emergency landing.
Battery crossfeed works differently than fuel tank crossfeed.
Thermal runaway in lithium-ion batteries is a fundamentally different emergency than a fuel leak.

The Charging Infrastructure Problem

Eviation targets a 30-minute charge time from depleted to full. For an airline running six to eight legs daily, that’s roughly comparable to a turboprop turnaround with passenger boarding and baggage handling.

But this requires dedicated high-power charging infrastructure at every airport served — infrastructure that does not exist today. The challenges are substantial:

Airports need megawatt-level power draws.
Many small regional airports are served by rural electrical grids incapable of delivering that power without major upgrades.
Who pays — airport authorities, airlines, utilities, or taxpayers — remains unresolved.

The ground infrastructure problem may be harder to solve than the airplane itself.

Certification Timeline and Financial Reality

The Alice is pursuing type certification from both the FAA and EASA. Eviation originally targeted 2027 for entry into service. Following a financial restructuring in late 2023, the realistic timeline has shifted to late 2028 or 2029 for initial deliveries — assuming no major setbacks in the flight test program, which first-of-its-kind programs rarely avoid.

Why the Alice Is Interesting Despite Its Limitations

Eviation made a strategically sound decision: they didn’t try to build an electric Boeing 737. They targeted the one corner of the market where the math can work — short routes, small aircraft, high frequency. Routes where turboprop fuel costs per seat mile are already painful, where noise restrictions limit operations, and where ground time already accommodates a charge cycle.

The Alice won’t replace a Cessna Caravan on a 500-mile cargo run or an ATR 72 on a 400-mile island hop. But it could replace the Cessna 402 or Piper Navajo on the 90-mile shuttle between Hyannis and Nantucket. More of those short, high-frequency routes exist worldwide than most people realize.

Key Takeaways

The Eviation Alice is the most credible fixed-wing electric commuter aircraft to have actually flown, completing its first flight in September 2022 with an all-electric propulsion system.
The battery weight penalty is fundamental: nearly half the aircraft’s gross weight is batteries that never get lighter, unlike fuel that burns off in flight.
Operating cost reductions of up to 70% are plausible on the right routes, but those routes are limited to roughly 250 nautical miles or less.
Charging infrastructure at regional airports is at least as challenging as the aircraft itself, requiring megawatt-level electrical capacity that most small airports lack.
Three factors will determine the Alice’s fate: battery energy density improvements, charging infrastructure buildout, and Eviation’s financial survival through certification — two of which are outside the company’s control.