The Pipistrel Velis Electro and the first type-certified electric airplane in history

The Pipistrel Velis Electro is the first and, as of mid-2025, only fully type-certified electric airplane in the world. EASA issued its type certificate on June 10, 2020, making this two-seat trainer a production aircraft — not an experimental project or concept render. Built in Slovenia and now owned by Textron eAviation, the Velis Electro has been flying real training sorties at European flight schools for years, including with the Swiss Air Force.

What Is the Velis Electro and Who Built It?

Pipistrel was founded by Ivo Boscarol in 1987 in Slovenia and has been developing electric aircraft longer than nearly any other manufacturer. The predecessor Alpha Electro flew under experimental and permit categories starting around 2015, but the Velis Electro was the company’s push for full certification — meeting every requirement EASA could impose.

The airframe is a two-seat, low-wing, fixed-gear composite trainer with side-by-side seating. Visually, it resembles other Pipistrel light aircraft. The difference is entirely under the cowling.

In 2022, Textron Aviation acquired Pipistrel, forming Textron eAviation. The company behind the Cessna 172, King Air, and Citation jet family now owns the only type-certified electric airplane on the planet. Manufacturing continues in Ajdovščina, Slovenia.

How Does the Electric Powerplant Perform?

The Velis Electro is powered by the E-811 liquid-cooled electric motor, producing approximately 57.6 kW (roughly 78 horsepower) peak power for takeoff and about 58 kW continuous. That is less than a Cessna 150’s 100-horsepower Continental, but the comparison misses a critical point about electric motor behavior.

Electric motors deliver peak torque from zero RPM. There is no spool-up time, no mixture to lean, no mag check. Full power is available the instant the throttle advances. For pattern work and training maneuvers, this instant response is a genuine operational advantage.

What About Battery Life and Endurance?

This is where the honest numbers matter. The Velis Electro carries two PB70E battery packs with a total energy capacity of approximately 24.8 kWh. Usable capacity after reserves is around 21 kWh — just as no pilot would land with dry tanks, no operator drains a lithium battery to zero.

Real-world endurance is approximately 50 minutes with reserves. A typical training sortie runs 40 to 45 minutes, after which the battery packs are swapped. A battery swap takes about five minutes; a full recharge takes roughly two hours on a standard charger.

Compared to a Cessna 172’s four-plus hours of endurance, 50 minutes sounds inadequate. But primary flight training overwhelmingly takes place in the traffic pattern. Students fly for about an hour, debrief, and fly again. For that specific mission profile, the Velis Electro is not compromised — it is purpose-built.

How Do Operating Costs Compare to Conventional Trainers?

The economic case is strong for high-utilization training fleets. European flight schools have reported electricity costs of €3 to €7 per full charge. A conventional trainer burns six to seven gallons of avgas per hour, costing €60 to €80 per hour in most European markets. That represents a roughly 90% reduction in direct energy costs.

Battery packs do have a finite service life measured in charge cycles and flight hours, and replacement is not cheap. Even accounting for battery depreciation, the operating economics favor electric power in a high-cycle training environment.

Why Does Maintenance Drop So Dramatically?

The E-811 motor has one moving part — the rotor. Compare that to a piston engine with hundreds of moving components requiring oil changes, spark plug replacements, magneto timing, carburetor heat management, and 100-hour inspections.

The Velis Electro’s battery thermal management system adds some complexity, but the overall maintenance burden is significantly lower than any piston trainer in service.

How Does Noise Change the Training Equation?

The Velis Electro produces approximately 60 dB at standard measurement distance. A conventional trainer generates 85 dB or more. Because decibels are logarithmic, this difference means the electric airplane is perceived as dramatically quieter.

This has a direct operational impact. Airports face constant noise pressure from surrounding communities, leading to curfews that reduce available training hours. Several European flight schools operating the Velis Electro have received permission to fly earlier in the morning and later in the evening, effectively extending their training day. More available hours means lower costs and shorter timelines for students.

Has Any Military Adopted the Velis Electro?

Yes. The Swiss Air Force adopted the Velis Electro for initial screening and basic flight training. Military adoption signals a level of platform maturity and reliability that goes beyond marketing claims — it means the aircraft met the evaluation standards of a national defense organization.

When Will the Velis Electro Be Available in the United States?

As of mid-2025, the Velis Electro holds EASA certification only, not FAA certification. While bilateral agreements exist between the two agencies for type certificate validation, electric propulsion is new enough that the FAA has proceeded cautiously. Regulatory frameworks for battery certification, charging infrastructure standards, and electric-specific maintenance protocols are still being developed.

Textron and Pipistrel have been working toward FAA validation, but no firm date has been publicly committed. U.S. flight school operators looking to purchase the aircraft are still waiting.

What Are the Real Limitations?

The Velis Electro is a VFR-day-only airplane — no night flying, no instrument approaches. It operates under light sport or equivalent category limitations with a maximum takeoff weight of 600 kg (approximately 1,320 lbs), accommodating two occupants and little else.

Battery performance degrades in cold weather, affecting winter operations. Charging infrastructure is another practical constraint — reliable, high-capacity electrical service is required at every operating airport, and not every small training field has it.

What Does the Future Look Like for Electric Trainers?

Battery energy density is improving at roughly 5 to 8% per year. Compounded over a decade, that could yield 50 to 80% more energy density than current packs. That improvement would push the Velis Electro’s endurance from 50 minutes toward 90 minutes to two hours, opening the door to cross-country training flights, navigation exercises, and diversion scenarios.

The competitive landscape is also developing. Diamond Aircraft, Bye Aerospace, and others have electric trainer programs at various stages of development. The Velis Electro’s significance extends beyond its own capabilities — it established the EASA certification pathway for electric aircraft. Every manufacturer that follows benefits from the regulatory template it created.

The Velis Electro represents the first genuine disruption to the piston trainer model in roughly 50 years. The Cessna 152 that trained one generation of pilots is mechanically identical to the one that trained the generation before. Electric propulsion changes the fundamental economics and operational constraints of flight training — not as a future promise, but as a certified, operational reality.

Key Takeaways

• The Pipistrel Velis Electro received the world’s first electric airplane type certificate from EASA on June 10, 2020, and is in active production and training use across Europe.
• With ~50 minutes of endurance and 5-minute battery swaps, it is purpose-built for traffic pattern training, cutting direct energy costs by approximately 90% compared to conventional trainers.
• The Swiss Air Force uses it for initial screening, validating the platform’s operational maturity.
• FAA certification has not yet been granted, and no firm timeline exists for U.S. availability.
• Battery energy density gains of 5-8% annually could expand the mission envelope significantly within the next decade, making cross-country training feasible.