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
Airbus A380 Flight Lab Unveiled for CFM RISE Open Fan Testing
Airbus and CFM International unveil A380 flight lab livery at Farnborough 2026 for CFM RISE Open Fan engine tests.

Airbus SE and CFM International unveiled the livery for the Airbus A380 flight lab dedicated to testing the CFM RISE (Revolutionary Innovation for Sustainable Engines) Open Fan engine architecture at the Farnborough International Airshow on July 21, 2026.
The presentation coincides with the completion of the first conceptual flight test design review. The joint program between Airbus and CFM International, a 50/50 joint company between GE Aerospace and Safran Aircraft Engines, aims to reduce fuel consumption and carbon dioxide emissions by 20 percent compared to current commercial engines.
Transitioning to flight test preparation
The designated testbed aircraft, an Airbus A380 identified as Manufacturer Serial Number (MSN) 114, departed a six-year desert storage in France on July 16, 2026. The aircraft relocated to Shannon, Ireland, to undergo painting and structural modifications. Engineers will eventually mount the open fan engine in the number 2 position on the inboard left wing for the Test-Flights campaign.
CFM International recently completed the preliminary design review for the compact core system, open fan, and outlet guide vanes. Arjan Hegeman, Vice President of Future of Flight Engineering at GE Aerospace, stated that this milestone allows the Manufacturing of parts for the grounded demonstrator to begin.
Prioritizing engine durability
While the open fan design removes the traditional engine casing to accommodate a larger fan and reduce drag, program leaders are placing equal emphasis on component longevity. GE Aerospace has completed over 350 tests and 3,000 endurance cycles on core components, which includes early dust ingestion testing.
“If there’s anything we’ve learned over the last years, it’s that durability matters as much as, if not more than, fuel efficiency,” Hegeman said.
Hegeman noted that the engineering teams are aiming to reach technology readiness level six by the turn of the decade.
AirPro News analysis
The explicit focus on durability during the early testing phases of the CFM RISE program reflects a broader industry shift. Current-generation narrowbody engines have faced well-documented time-on-wing and maintenance challenges, prompting Manufacturers to prioritize robust operating characteristics alongside fuel efficiency gains. By subjecting core components to 3,000 endurance cycles and dust ingestion tests years before the first flight, CFM International is working to ensure the open fan architecture can withstand harsh operational environments from entry into service. We expect this dual mandate of efficiency and reliability to define the Certification pathway for next-generation Propulsion systems.
Sources: GE Aerospace Press Release
Photo Credit: GE Aerospace
Technology & Innovation
Joby Aviation and Toyota Form eVTOL Manufacturing Joint Venture
Joby Aviation and Toyota establish a joint venture to manufacture the S4 eVTOL, with Toyota holding a 51% stake.

Joby Aviation, Inc. (JOBY) and Toyota Motor Corporation (TM) have formalized their nearly decade-long partnership by establishing a joint venture to manufacture electric vertical take-off and landing (eVTOL) aircraft. The new entity, named the Joby Toyota Aero Manufacturing Preparation Company, will focus on scaling commercial production of the Joby S4 Series eVTOL aircraft.
Announced in a press release on June 30, 2026, following a U.S. Securities and Exchange Commission (SEC) 8-K filing on June 29, 2026, the alliance combines Joby’s electric aviation technology with Toyota’s established production systems expertise. The joint venture will operate across locations in Santa Cruz, California, and Toyota City, Japan.
Joint venture structure and financial stakes
Toyota holds a 51 percent majority stake in the new manufacturing company, acquired through the purchase of 1.02 million shares for $1.02 million. Joby retains the remaining 49 percent stake, having purchased 980,000 shares for $980,000. The joint venture will be governed by a five-member board of directors, with three members designated by Toyota and two designated by Joby.
The agreement includes specific intellectual property licensing arrangements between the two parent companies. Joby will license certain aircraft-related intellectual property to the joint venture on a royalty-free basis. In return, Toyota will license manufacturing-related intellectual property to the venture, which includes certain royalty-bearing rights.
Scaling eVTOL production
The formal joint venture builds upon a foundation of significant financial and technical support from the Japanese automaker. Toyota has provided approximately $900 million in total capital to Joby to date. The automaker is already providing technical assistance as Joby establishes a series production line for the S4 eVTOL aircraft at a facility in Ohio.
In the June 30 press release, Joby Aviation founder and CEO JoeBen Bevirt highlighted the depth of the corporate relationship.
“Toyota has been by Joby’s side for nearly a decade, providing invaluable guidance and support as we built the foundation for Manufacturing our aircraft. Today’s announcement reflects the strength of our relationship and our shared confidence in the opportunity ahead.”
Toyota Motor Corporation Chairman Akio Toyoda stated that the company views air mobility as a natural extension of its philosophy of providing mobility for all, expanding its focus from the ground into the sky to bring new value to society.
Certification progress and next steps
The manufacturing alliance aligns with Joby’s ongoing Certification efforts with the U.S. Federal Aviation Administration (FAA). During the first quarter of 2026, Joby began flying its first FAA-conforming aircraft for type inspection authorization. This testing phase is a required step as the company works toward achieving full FAA type certification for the S4 Series.
With the joint venture now legally established, the two companies will begin integrating their engineering and manufacturing teams across the California and Japan facilities to prepare for high-volume aircraft production.
AirPro News analysis
We view the formalization of the Joby Toyota Aero Manufacturing Preparation Company as a critical de-risking event for Joby’s production ambitions. While designing and certifying an eVTOL aircraft presents significant regulatory hurdles, manufacturing these vehicles at scale with automotive-style efficiency is an entirely different challenge that has historically troubled aerospace Startups. By securing a majority-stake commitment from Toyota, Joby gains direct access to one of the world’s most proven manufacturing systems. Furthermore, the intellectual property arrangement, where Toyota retains royalty-bearing rights on its manufacturing processes, suggests the automaker sees long-term revenue potential in aerospace production beyond its initial capital Investments.
Photo Credit: Joby Aviation
Sustainable Aviation
KBR Selected for Asia’s First Ethanol-to-Jet SAF Plant in Singapore
KBR will provide PureSAF technology licensing and FEED services for a 100,000-ton/year SAF facility on Jurong Island, Singapore.

On June 29, 2026, KBR announced its selection by Keppel Ltd. and Aster Chemicals and Energy to provide technology licensing and Front-End Engineering Design (FEED) services for a proposed 100,000-ton-per-year SAF (SAF) facility on Jurong Island, Singapore.
The planned facility is envisioned as Asia’s first commercial-scale ethanol-to-jet (EtJ) SAF plant. According to the KBR press release, the project will utilize the company’s PureSAF technology to produce a 100% drop-in jet fuel, supporting Singapore’s national mandate to increase sustainability usage across the aviation sector.
PureSAF technology and project scope
The Jurong Island facility will leverage PureSAF, a technology originally developed by Swedish Biofuels AB and engineered for commercial-scale production by KBR, which holds the exclusive global license. The process is designed to convert ethanol into aviation fuel that requires no blending with conventional Jet A or Jet A-1 before use.
In a statement accompanying the announcement, KBR President and CEO Stuart Bradie highlighted the system’s flexibility.
“KBR’s PureSAF is a feedstock-flexible, bankable technology that is designed to deliver a 100% drop in jet fuel, ready to power aircraft without blending. We are constantly innovating our SAF solution to make it compatible with feedstock availability in different regions and to enable the aviation industry to transition to low-carbon jet fuel with a cost-optimized approach.”
The FEED study will determine the technical configuration and project capital expenditure required for the facility. The development remains subject to regulatory approvals and a final investment decision (FID) by the project partners.
Aligning with Singapore’s aviation mandates
The selection of KBR follows a January 28, 2026, agreement between Keppel’s Infrastructure Division and Aster to jointly assess the development of the Jurong Island site. Aster operates as a joint venture between Indonesian petrochemical company Chandra Asri and Swiss commodities trader Glencore.
The proposed 100,000-ton annual production capacity aligns directly with targets set by the Civil Aviation Authority of Singapore (CAAS). Starting in 2026, the CAAS mandates a 1% SAF uplift for all departing flights from the country, with a stated goal of increasing that requirement to between 3% and 5% by 2030.
Alongside the SAF plant contract, KBR and Keppel signed a Memorandum of Intent to collaborate on broader energy transition initiatives. The companies plan to explore technologies related to waste-to-energy, plastic recycling, biofuels, and artificial intelligence-driven digitalization.
AirPro News analysis
We view the progression of the Jurong Island project to the FEED stage as a critical indicator of the Asia-Pacific region’s readiness to scale SAF production. While North America and Europe have led early SAF capacity investments, Singapore’s firm regulatory mandate provides the demand certainty required to underwrite commercial-scale facilities in Southeast Asia. The choice of an ethanol-to-jet pathway is particularly notable, as it allows operators to bypass the constrained supply of fats, oils, and greases that limit hydroprocessed esters and fatty acids (HEFA) production volumes. The project’s ultimate realization hinges on the upcoming final investment decision, which will test the commercial viability of the EtJ process in the current economic environment.
Sources: KBR
Photo Credit: KBR
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