Gen-ee: the 100% electric aircraft for 19 passengers, 500 km and 11 times less energy

While airlines seek to reduce emissions through incremental changes, a French start-up is betting on redesigning the regional aircraft from the ground up.

Rather than simply switching fuels or improving flight paths, the Gen-ee project proposes a 100% electric aircraft with a radically different shape. It is intended to carry 19 passengers, fly 500 km and, according to its creators, use up to 11 times less energy than current regional models.

An electric aircraft unlike the usual design

Founded in 2019 in the Saint-Étienne region, French company Eenuee has chosen to focus on a less glamorous part of aviation: short regional flights linking medium-sized cities, mountain areas and remote regions. These are precisely the routes where aircraft face the strongest criticism for creating excessive pollution while delivering limited profitability.

The Gen-ee is designed to serve this segment. It is intended to:

• carry up to 19 passengers;
• fly approximately 500 km in fully electric mode;
• use existing aerodromes without major construction work;
• take off from lakes and rivers in an amphibious version equipped with hydrofoils.

“With a ‘flying wing’ architecture and a lifting fuselage, the Gen-ee aims for aerodynamic efficiency that is difficult to achieve with conventional aircraft.”

Its first flight is scheduled for 2029. It is an ambitious target, but one supported by a partnership with the Duqueine Group, a composites specialist brought in specifically to speed up the aircraft’s structural engineering.

Why “11 times less energy” is not empty marketing

The claim that it will consume 11 times less energy than a combustion-powered regional aircraft may initially appear exaggerated. However, the Eenuee team points to three technical foundations behind the target.

Blended-wing-body aerodynamics (BWB)

The Gen-ee uses the BWB, or Blended Wing Body, principle, in which the fuselage almost merges into the wings. Instead of the conventional tube-shaped body, the aircraft’s central structure generates lift as well. This reduces unproductive surface area and removes joints that disrupt airflow.

According to its engineers, the lift-to-drag ratio reaches 25, a figure above that of most current regional aircraft. Lower drag means less energy is needed to maintain cruise flight.

Fully electric propulsion

Combustion engines waste a substantial amount of energy through heat and noise. A well-designed electric propulsion chain, by contrast, can approach 90% efficiency, according to the project team.

That does not, on its own, solve the challenge posed by battery weight, but it significantly reduces energy losses between storage and the propellers’ thrust.

Lower mass and a simpler structure

The Gen-ee is designed for take-off at 5.6 tonnes. In the same certification category, CS-23, maximum mass could reach 8.6 tonnes. In other words, the design deliberately retains a substantial weight margin.

This difference is based on three main decisions:

Factor	Impact on the project
Extensive use of carbon-fibre composites	A lighter structure without sacrificing rigidity
High-performance aluminium for metal parts	Strong mechanical resistance at lower mass
Unpressurised cabin	A reduction of around 40% in structural mass

“An extra kilogram stays with the aircraft throughout its service life and adds to emissions. That is why there is such an obsession with weight reduction and structural simplicity.”

Multi-surface operation: from runway to lake without modifications

One of the Gen-ee’s most unusual features is its amphibious variant. Rather than using traditional floats, the aircraft will employ hydrofoils - submerged wings used on racing boats to “lift” the hull above the water.

In practical terms, the aircraft can accelerate across the water until the hydrofoils produce sufficient lift to reduce drag and make take-off easier, much like an acceleration run on a runway.

This could create new possibilities:

• linking isolated areas in lake-rich countries such as Canada and Finland;
• connecting islands where building a full airport would not be worthwhile;
• serving extensive river areas, including wide rivers and reservoirs.

Unlike floatplanes, which require specific maintenance, Eenuee’s proposal is to keep the aircraft capable of landing on both runways and water without dismantling components or carrying out complex adjustments.

Regional aviation without heavy infrastructure

The Gen-ee’s creators identify a clear gap: communities unable to financially support a conventional air route, yet also lacking efficient rail links or reliable roads.

In this context, an aircraft that can operate from the following locations could make a difference:

• small aerodromes with limited equipment;
• mountainous regions, such as Auvergne-Rhône-Alpes in France itself;
• short runways and simple boarding facilities.

The required infrastructure would centre on:

• safe, covered areas for passengers to board and disembark;
• regional maintenance centres;
• electric charging stations inspired by solutions already used in the automotive industry.

There would be no need for huge terminals, passenger boarding bridges or monumental hangars. The aim is to fit operations into existing secondary aerodromes, adapting only the essentials required for safety and passenger handling.

From laboratory to flight: the route to 2029

There is a vast gap between a digital concept and a certified aircraft. Eenuee is seeking to reduce that risk through a gradual validation strategy.

Reduced-scale testing

The team currently works with 1:7-scale demonstrators, which help it assess aerodynamic behaviour, control and stability. The next stage will be a 1:4 demonstrator, closer to the future full-size aircraft and also designed with industrial considerations in mind.

These prototypes make it possible to identify critical issues before heavy investment is made in tooling, an assembly line and certification.

European certification and safety

The Gen-ee will be certified under the CS-23 regulation, which applies to light and regional aircraft. The process includes:

• detailed risk assessments;
• structural and flight simulations;
• physical testing of components and systems;
• continuous collaboration with European civil aviation authorities.

The company expects to formally begin the certification process and obtain DOA (Design Organisation Approval) in 2027, in parallel with building its first full-scale prototype.

What a lifting fuselage means in practice

For those accustomed to the classic tube-and-wing arrangement, a lifting fuselage may sound abstract. In this configuration, the fuselage resembles a large, thick wing when viewed from the side. The transition from the central body to the wings is smooth, with almost no visible break.

This brings advantages, but it also creates challenges:

• pitch control, meaning nose-up and nose-down movement, is likely to rely on elevons rather than a conventional rear stabiliser;
• the cabin interior must be redesigned because the usable space is no longer a simple tube;
• the internal structure is more complex because it must withstand aerodynamic loads across its entire area.

In return, this architecture makes it possible to rethink the placement of passengers, luggage and batteries, potentially improving both passenger comfort and aircraft balance.

Risks, battery limits and future scenarios

Batteries remain the main bottleneck. A 500 km range would cover a large share of European regional flights, but it cannot replace long domestic or international routes. This requires a particular kind of air network: short, frequent and carefully planned services.

One genuine risk is that battery technology may advance more slowly than expected. If energy density does not improve at the anticipated rate, compromises will be required: fewer passengers, shorter range or longer charging times.

On the other hand, the BWB shape and lifting fuselage could be scaled up for larger aircraft if batteries improve. The engineers themselves mention additional uses, including medical evacuation, humanitarian missions, light cargo transport and even defence applications.

For aviation followers, a few terms are worth noting. “Finesse 25” means that for every metre the aircraft loses in altitude, it travels 25 metres horizontally while gliding. A hydrofoil, meanwhile, is a kind of “wing” beneath the water which, as speed increases, lifts the hull - or in this case helps to take part of the aircraft’s weight off the water.

If the timetable is maintained, the Gen-ee could provide a real-world test of a concept that has appeared in academic studies for decades: the low-emission commercial flying wing. It could also help answer whether the combination of electric power, composites and a lifting fuselage can work beyond the drawing board, facing daily maintenance, rain, ice, delays and pressure to keep costs low.