Technology & Innovation
Electra.aero Begins FAA Certification for EL9 Hybrid-Electric Aircraft
Electra.aero applies for FAA Part 23 certification of EL9 hybrid-electric eSTOL aircraft with prototype flight planned in 2027 and service in 2029.

This article is based on an official press release from Electra aero.
Electra aero Initiates FAA Certification for EL9 Hybrid-Electric Aircraft
Electra aero has officially submitted its application to the Federal Aviation Administration (FAA) for Part 23 type certification of its EL9 Ultra Short aircraft. This regulatory filing marks a critical transition for the Virginia-based manufacturer, moving the program from technology demonstration into the formal compliance phase required for commercial operations.
According to the company’s announcement on December 10, 2025, the EL9 is a nine-passenger hybrid-electric aircraft designed for extremely short takeoffs and landings (eSTOL). By entering the certification process, Electra aims to validate its proprietary “blown lift” technology and hybrid propulsion system under the FAA’s modernized airworthiness standards.
The company has outlined a timeline targeting the first flight of a conforming prototype in 2027, with certification and entry into commercial service projected for 2029. Electra reports a substantial backlog for the aircraft, citing over 2,000 pre-orders valued at more than $8 billion from customers including the Bristow Group and various regional carriers.
Technical Specifications and “Direct Aviation”
The EL9 is engineered to operate in a market segment distinct from both traditional helicopters and emerging electric vertical takeoff and landing (eVTOL) vehicles. Electra describes the aircraft as an eSTOL platform capable of taking off and landing in spaces as small as 150 feet (approximately 45 meters). This capability is central to the company’s “Direct Aviation” model, which seeks to utilize infrastructure such as parking lots, barges, and small airfields rather than relying solely on major commercial airports.
Propulsion and Performance
Unlike fully electric competitors that require ground-based charging infrastructure, the EL9 utilizes a hybrid-electric powertrain. A turbogenerator charges the batteries in-flight, which powers eight electric motors distributed along the wing’s leading edge. This configuration allows the aircraft to refuel using standard aviation fuel, eliminating the immediate need for grid upgrades at remote landing sites.
According to technical specifications released by the manufacturer, the EL9 offers the following performance metrics:
- Capacity: 9 passengers plus a pilot, or up to 3,000 lbs (1,360 kg) of cargo.
- Range: 330 nautical miles in passenger configuration; up to 1,100 nautical miles for ferry or cargo operations.
- Cruise Speed: Approximately 175 knots (200 mph).
- Runway Requirement: 150 feet for takeoff and landing.
Blown Lift Technology
The aircraft’s short runway performance is achieved through “blown lift” aerodynamics. The distributed electric motors blow air over the wings at high velocity, generating significant lift even at low airspeeds. This allows the EL9 to operate safely at speeds as low as 35 knots, facilitating its ultra-short field performance.
Regulatory and Competitive Landscape
Electra’s application falls under 14 CFR Part 23, the FAA’s set of airworthiness standards for small airplanes. Following Amendment 23-64, these regulations shifted from prescriptive design requirements to performance-based standards. This regulatory framework is essential for integrating novel technologies like distributed electric propulsion, though it often requires manufacturers to define “Special Conditions” with the FAA to prove safety compliance for high-voltage battery systems.
AirPro News Analysis
The submission of the Part 23 application places Electra in direct competition with other hybrid-electric regional aircraft developers, though their operational profiles differ. Competitors such as Sweden’s Heart Aerospace and France’s Aura Aero are developing larger regional aircraft (the ES-30 and ERA, respectively) that require standard runways. By contrast, Electra’s eSTOL capability targets the gap between these regional fixed-wing aircraft and vertical-lift helicopters.
From an infrastructure perspective, Electra’s choice of a hybrid-electric system offers a strategic deployment advantage. While pure electric aircraft are tethered to the rollout of high-power charging stations, the EL9’s ability to use existing fuel supply chains means it can theoretically enter service immediately upon certification without waiting for airport electrification projects to mature. However, the complexity of certifying a novel blown-lift system alongside a hybrid powertrain remains a significant engineering and regulatory hurdle to clearing the 2029 target.
Frequently Asked Questions
What is the difference between eSTOL and eVTOL?
eVTOL (electric Vertical Takeoff and Landing) aircraft take off vertically like helicopters. eSTOL (electric Short Takeoff and Landing) aircraft, like the EL9, require a very short runway (approx. 150 feet) but generally offer higher payload capacity and longer range than eVTOLs.
When will the EL9 enter service?
Electra targets certification and commercial entry into service by 2029, with a prototype first flight planned for 2027.
Does the EL9 require electric charging stations?
No. The aircraft uses a hybrid-electric system where an onboard turbogenerator charges the batteries, allowing it to refuel with standard aviation fuel.
Sources
Photo Credit: Electra aero
Technology & Innovation
Vertical Aerospace Selects Astronics for Valo eVTOL Power System
Vertical Aerospace picks Astronics CorePower for Valo eVTOL low-voltage power distribution as the program advances toward CDR.

Vertical Aerospace (NYSE: EVTL) has selected Astronics Corporation (NASDAQ: ATRO) to supply the low-voltage power distribution system for its Valo electric vertical take-off and landing (eVTOL) aircraft, securing a critical component as the manufacturers advances toward its Critical Design Review (CDR).
In a press release issued on June 29, 2026, the London-based aerospace company announced the long-term agreement with the New York-based supplier. Astronics will provide its CorePower system, which is designed to convert high-voltage power from the aircraft’s propulsion architecture into low-voltage power required for avionics, flight controls, and other essential flight systems.
Power distribution architecture
The integration of the CorePower system addresses a fundamental engineering requirement for electric aviation. The system manages the step-down conversion from the high-voltage battery and propulsion networks to the low-voltage systems that keep the aircraft flying safely.
“Our CorePower system is purpose-built for eVTOL applications, combining high-voltage power conversion with low-voltage power distribution delivering reliable, fault-protected power to flight-critical systems including avionics, flight controls, and navigation,” stated Jon Neal, President of Astronics Advanced Electronic Systems.
The agreement with Astronics is part of Vertical Aerospace’s broader push toward its CDR. This review will establish the certifiable design baseline for the Valo aircraft, allowing the company to transition into certification-conforming production and testing.
“Building a certifiable aircraft requires not only breakthrough technology, but also a world-class supplier ecosystem,” said Stuart Simpson, CEO of Vertical Aerospace. “Astronics brings deep expertise in aircraft electrical power systems and has already demonstrated its capabilities through our flight test programme. This agreement is another important step as we mature Valo’s design, strengthen our supply chain and advance toward certification and commercial production.”
Expanding the supplier ecosystem
Astronics joins a growing list of aerospace suppliers partnering with Vertical Aerospace. The company previously selected Hyundai WIA for the aircraft’s landing gear on May 21, 2026. Other established partners on the Valo program include Honeywell, Aciturri, Evolito, Syensqo, and Isoclima.
The supplier announcement follows recent operational milestones for the Valo program. On June 9, 2026, Vertical Aerospace completed the first piloted flight of its final full-scale prototype. The company is targeting a cruise speed of 150 mph and a range of 100 miles for the production aircraft, which currently holds approximately 1,500 pre-orders globally. The development program is supported by a comprehensive financing package of up to $850 million, which closed on April 20, 2026.
AirPro News analysis
The selection of Astronics highlights a maturing phase in the eVTOL sector where manufacturers are shifting from conceptual prototypes to certifiable, production-ready designs. By partnering with established aerospace suppliers rather than attempting to design complex subsystems in-house, Vertical Aerospace reduces its certification risk. The CorePower system is already a known quantity in traditional aviation. Adapting it for the Valo aircraft provides regulatory authorities with familiar technology, which we view as a strategic advantage as the company navigates the complex certification pathways ahead.
Sources: Vertical Aerospace via Business Wire
Photo Credit: Vertical Aerospace
Technology & Innovation
UrbanV and JAC Partner to Build eVTOL Vertiports in Tokyo
UrbanV and Japan Airport Consultants announce a vertiport development partnership for Tokyo’s eVTOL program, backed by Japan Airlines and Archer Aviation.

Vertiport operator UrbanV and Japan Airport Consultants, Inc. (JAC) announced a strategic partnerships on June 12, 2026, to develop ground infrastructure for Advanced Air Mobility (AAM) operations in Japan. The agreement positions the two companies as the technical leads for vertiport development within a broader Tokyo-focused consortium spearheaded by Japan Airlines (JL) and Archer Aviation.
In a press release issued by UrbanV, the companies detailed plans to align local Japanese AAM initiatives with global regulations standards established by the European Union Aviation Safety Agency (EASA), the Federal Aviation Administration (FAA), and the International Civil Aviation Organization (ICAO). The initial focus will center on the Tokyo Metropolitan Area, laying the physical groundwork required for electric vertical takeoff and landing (eVTOL) aircraft to operate in dense urban environments.
Integrating with the Tokyo eVTOL program
The infrastructure agreement directly supports Japan’s ongoing push to commercialize passenger eVTOL flights. In November 2025, the Tokyo Metropolitan Government selected a consortium led by Japan Airlines for the first phase of its eVTOL Implementation Program. UrbanV and JAC will now serve as the strategic technical partners responsible for designing and integrating the vertiports required for this specific initiative.
Takeya Hirano, General Manager of the Planning and Development Department at JAC, highlighted the necessity of merging global insights with local expertise to navigate complex urban and aviation regulations.
“As Japan moves toward the social implementation of Advanced Air Mobility, it is essential to combine international experience with a deep understanding of Japan’s airport, aviation, regulatory and urban environments,” Hirano stated.
Hirano added that JAC will leverage its background in traditional aviation infrastructure to support the realization of a socially accepted AAM ecosystem in Japan.
Fleet scale and the Archer Midnight
The physical infrastructure developed by UrbanV and JAC will primarily support operations utilizing the Archer Midnight aircraft. In November 2024, Archer Aviation and Soracle Corporation, a joint venture between Japan Airlines and Sumitomo Corporation, announced a strategic alliance to launch air taxi operations across Japan.
According to previous consortium announcements, Soracle intends to purchase up to 100 Archer Midnight aircraft to service these routes. The intended orders carries an approximate value of $500 million, representing a significant capital commitment to the Japanese AAM market.
UrbanV Chairman Ivan Bassato noted the importance of the Japanese market for the company’s international expansion strategy, which will eventually explore opportunities beyond Japan.
“Japan is globally recognized for its leadership in technology and innovation. We are honored to enter this market through a solid and long-term partnership with Japan Airport Consultants, a trusted local leader,” Bassato said.
AirPro News analysis
We view the UrbanV and JAC partnership as a necessary maturation step for the Japanese AAM sector. While aircraft orders and consortium formations generate headlines, the physical and regulatory integration of vertiports remains the primary bottleneck for eVTOL commercialization globally. By explicitly targeting alignment with EASA, FAA, and ICAO standards, this partnership indicates that the Japan Airlines consortium intends to build an infrastructure network capable of supporting multiple certification aircraft types in the future, rather than a closed ecosystem limited to a single manufacturer. Securing a dedicated infrastructure partner moves the Tokyo Metropolitan Government’s eVTOL program from the conceptual planning phase into concrete urban integration.
Sources: UrbanV
Photo Credit: UrbanV
Technology & Innovation
MEL Composites Supplies Carbon Fiber for ELA Eclipse REVO
MEL Composites provides carbon fiber and core materials to ELA Aviación for the Eclipse REVO autogyro, capable of 10-meter takeoffs.

Spanish materials supplier MEL Composites is providing advanced carbon fiber and core materials to ELA Aviación for the production of the Eclipse REVO, a new fully enclosed, two-seat autogyro capable of extremely short takeoffs.
According to a project case study released by MEL Composites, the partnerships supports the manufacturing of next-generation gyroplanes at ELA Aviación’s facility in Fuente Obejuna, Córdoba. The integration of lightweight composite structures allows the Rotax 916is-powered Eclipse REVO to achieve takeoff distances as short as 10 meters.
Material specifications and manufacturing
MEL Composites, headquartered in Vilassar de Mar, Barcelona, supplies a specific range of products for the aircraft’s construction. The materials include PVC foam cores, 3K and 6K carbon fabrics, stitched multiaxial carbon reinforcements, and vacuum consumables. These components are critical for reducing the overall weight of the airframe while maintaining structural integrity.
Eduardo Galofre, CEO of MEL Composites, stated that the company recently expanded its manufacturing capacity to provide more options for custom-shaped core material kits to meet growing aerospace demand.
“The aircraft manufactured by ELA demonstrate how carbon composite engineering can continue to improve aerospace performance, safety, and manufacturing efficiency, while offering exciting new mobility solutions for both the commercial and private aviation markets,” Galofre said.
ELA Aviación production milestones
ELA Aviación began experimental development of composite aircraft in the 1980s before officially transitioning to commercial manufacturing approximately 30 years ago. Since its founding, the manufacturer has delivered over 1,000 aircraft worldwide.
The Eclipse REVO represents the latest iteration of the company’s design philosophy. ELA Aviación describes the aircraft as the first fully enclosed, two-seater autogyro manufactured entirely from carbon composite. The lightweight fuselage, combined with the Rotax 916is engine, effectively eliminates the need for a traditional runway by enabling the 10-meter takeoff roll.
AirPro News analysis
We view the partnership between MEL Composites and ELA Aviación as indicative of a broader trend in the light sport and experimental aircraft sectors. As carbon composite materials become more accessible and manufacturing techniques mature, smaller original equipment manufacturers (OEMs) can achieve performance metrics previously reserved for larger aerospace firms. The 10-meter takeoff capability of the Eclipse REVO positions it as a highly competitive option in the advanced air mobility space, particularly for operators requiring off-airport or short-field performance without the regulatory and mechanical complexity of vertical takeoff and landing (VTOL) systems.
Sources: MEL Composites
Photo Credit: ELA Aviación
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