The Pipistrel Velis Electro and the first type-certified electric airplane that actually exists

The Pipistrel Velis Electro is the world’s first fully electric airplane to hold a type certificate from a major aviation authority. While most electric aviation headlines promise breakthroughs five or ten years away, this two-seat trainer has been flying since June 2020, when EASA granted its type certificate. It’s currently operating in over twenty countries — and almost nobody in general aviation is talking about it.

What Is the Velis Electro and Who Makes It?

The Velis Electro is a two-seat, low-wing, single-engine trainer built by Pipistrel, the Slovenian manufacturer known for decades of efficient light aircraft design. The company operates from a small factory in Ajdovščina, a town of roughly six thousand people in western Slovenia.

Since 2022, Pipistrel has been part of Textron eAviation, placing it in the same corporate family as Cessna, Beechcraft, and Bell Helicopter. Textron acquired Pipistrel for approximately $235 million, a signal that the parent company views electric training aircraft as a serious commercial platform, not a novelty.

What Made the EASA Type Certificate Historic?

In June 2020, EASA granted the Velis Electro a full type certificate — the same category of approval that covers a Cessna 172 or Diamond DA40. This was not an experimental permit or a special condition waiver. It was the first time any major aviation authority had type-certified a fully electric airplane.

EASA accomplished this by creating a Special Condition for electric and hybrid propulsion systems, essentially writing new certification rules tailored to the technology. The FAA has not yet matched this. As of now, no fully electric airplane holds an FAA type certificate. The FAA has been working through its existing Part 33 engine certification framework, which was designed for combustion engines and doesn’t translate cleanly to electric motors and battery systems. Several manufacturers, including Pipistrel, have expressed frustration with the pace of progress.

What Are the Velis Electro’s Specifications?

The airplane’s powertrain is the E-811, developed in-house by Pipistrel. Key numbers:

• Continuous power: ~57 kW (~77 horsepower)
• Peak power: ~70 kW
• Battery capacity: Two packs totaling ~24.8 kWh
• Battery weight: ~68 kg (~150 lbs) each, ~300 lbs combined
• Flight endurance: ~50 minutes with reserves
• Cruise speed: ~90 knots
• Max takeoff weight: 600 kg (~1,320 lbs)
• Noise at 100 meters: ~60 dB (vs. ~80 dB for a Cessna 172)

Why Was It Designed Specifically for Training?

Seventy-seven continuous horsepower and fifty minutes of endurance won’t replace a Cherokee for cross-country flying. That’s intentional. The Velis Electro was built to excel at one mission: the traffic pattern and practice area work that fills the first 20–40 hours of every student pilot’s logbook. Touch-and-goes, slow flight, stalls, steep turns — these are sessions that typically last 45 minutes to an hour, fitting neatly within the airplane’s endurance envelope.

Between lessons, battery packs swap out and recharge in roughly two hours on a standard outlet or about one hour on a faster setup. A flight school running three or four airplanes can stagger lessons and maintain a continuous rotation throughout the day.

How Do the Operating Economics Compare?

This is where flight school owners are paying close attention. The direct operating cost breakdown is stark:

The purchase price is higher — roughly €170,000 compared to about €130,000 for a new Cessna 172S. But multiple European flight schools have published fleet data showing the break-even point arrives faster than expected once fuel savings, reduced maintenance, and (in some countries) zero-emission tax incentives are factored in. Notable data sources include the Green Aerolease program in the Netherlands and flight schools in Scandinavia, Switzerland, and Spain.

What About Noise Advantages?

The difference is dramatic. At 100 meters, the Velis Electro produces roughly 60 decibels compared to about 80 decibels for a Cessna 172. Because decibels are logarithmic, every 10 dB reduction halves perceived loudness — making the Velis Electro roughly four times quieter than a conventional trainer.

The practical impact is significant. AlpinAirPlanes, a Swiss flight school operating from an airport with strict noise curfews, was previously limited to training between 8 AM and 6 PM. After introducing the Velis Electro, they received approval to extend operations by two hours on each end of the day. That’s four additional training hours daily — translating directly into more students, faster completions, and increased revenue. Several European airports have similarly extended operating hours specifically for electric aircraft.

What Are the Real Limitations?

The Velis Electro’s constraints are worth understanding clearly:

Endurance is a hard ceiling. Fifty minutes cannot be stretched by leaning the mixture or carrying extra fuel. Cross-country training requires a different airplane.

Battery degradation is real. Lithium-ion cells lose capacity over charge cycles. Pipistrel’s battery management system is engineered conservatively, limiting depth of discharge and managing thermal loads. But after roughly 1,000 charge cycles, expect reduced endurance. Battery replacement is a significant cost, though still cheaper than a Lycoming overhaul.

Weight is a fundamental constraint. The 300 lbs of battery packs consume a large fraction of the 1,320-lb max takeoff weight. Two larger adults can push the airplane close to max gross. This reflects the core physics challenge: jet fuel carries roughly 43 times the energy density of the best lithium-ion batteries by weight. That ratio improves by only a few percent per year.

Why Does the Leaded Fuel Debate Matter Here?

100LL avgas is the last leaded fuel in common use in the United States. The EPA continues tightening requirements, and unleaded alternatives like G100UL are rolling out. The Velis Electro sidesteps this issue entirely — no fuel, no lead, no emissions discussion. For airports facing community pressure over environmental impact, an electric training fleet offers a straightforward answer.

Where Does the Competition Stand?

The Bye Aerospace eFlyer 2 has been in development for years targeting the same training market. Diamond Aircraft has been working on electric and hybrid variants. But as of today, the Velis Electro remains the only one with a type certificate. In aviation, the gap between a flying prototype and a certified product is enormous — often described as the valley of death where promising designs get buried in regulatory paperwork. Pipistrel crossed that valley. The others are still in it.

What’s the Realistic Timeline for Electric Aviation Beyond Trainers?

• Certified four-seat electric aircraft for short-range flights: likely within 5–7 years, contingent on battery energy density improving from today’s ~260 Wh/kg to north of 400 Wh/kg
• Nine-passenger regional aircraft: probably hybrid-electric architectures in the early 2030s
• Anything larger: hydrogen or sustainable aviation fuel, not batteries

Why Does the Velis Electro Matter?

The Velis Electro is proof of concept — not that batteries will replace turbofans on a 737, but that electric propulsion works today for a specific and important use case. Training is where every pilot begins. If the first 20 hours of a student’s flying life happen in an electric airplane, their entire relationship with aviation starts with different assumptions about energy management and efficiency.

Textron’s acquisition wasn’t charity. The next steps likely involve a four-seat electric or hybrid aircraft building on the E-811 powertrain platform.

Key Takeaways

• The Pipistrel Velis Electro is the world’s only type-certified electric airplane, approved by EASA in June 2020 and operating in 20+ countries
• It was purpose-built for flight training pattern work, with ~50 minutes endurance and operating costs of €3–5/hour for electricity vs. €40–60/hour for avgas
• The airplane is roughly four times quieter than conventional trainers, enabling extended operating hours at noise-sensitive airports
• The FAA has no equivalent type certificate path yet, leaving U.S. operators waiting while European schools accumulate real-world fleet data
• Battery energy density remains the fundamental constraint — jet fuel carries 43x more energy per kilogram — but for the training mission, current technology already works