Technology & Innovation
Axcelis and GE Aerospace Develop High Voltage Silicon Carbide Power Devices
Axcelis and GE Aerospace partner to create 6.5 to 10kV silicon carbide power devices, advancing semiconductor tech for aerospace and EV markets.

Strategic Partnership Between Axcelis and GE Aerospace Advances High-Voltage Silicon Carbide Power Device Development
In August 2025, Axcelis Technologies and GE Aerospace announced a Joint Development Program (JDP) to pioneer production-worthy 6.5 to 10kV superjunction silicon carbide (SiC) power devices, leveraging Axcelis’ Purion XEmax™ high-energy implanter. This partnership is a pivotal moment for the semiconductor industry, reflecting both the rising importance of wide bandgap semiconductors and the strategic necessity of domestic manufacturing capacity. The collaboration is positioned within the federally funded Commercial Leap Ahead for Wide Bandgap Semiconductors (CLAWS) Hub, led by North Carolina State University, and aligns with U.S. initiatives to secure critical technology supply chains.
The significance of this JDP extends beyond technical innovation. SiC devices are essential for a new generation of high-performance power electronics, enabling applications in aerospace, defense, electric vehicles, renewable energy, and advanced computing. By combining Axcelis’ expertise in high-energy ion implantation with GE Aerospace’s decades-long SiC research, the partnership aims to deliver devices that operate at voltages previously unattainable, with efficiency and reliability required for mission-critical systems.
The broader context includes rapid market growth, with the global SiC market projected to reach $12.39 billion by 2034, and increasing government investment in semiconductor R&D and Manufacturing. This article examines the technical, economic, and strategic dimensions of the Axcelis-GE Aerospace partnership, providing insight into the future trajectory of power electronics and the semiconductor industry.
Foundations of Silicon Carbide Technology and Ion Implantation
Silicon carbide (SiC) represents a transformative advance in semiconductor materials. Its wide bandgap structure enables operation at higher voltages, temperatures, and frequencies than traditional silicon (Si) devices. This makes SiC especially valuable for power electronics, where efficiency, thermal management, and miniaturization are critical. SiC devices can function at temperatures up to 200°C, well above silicon’s typical 125°C limit, and achieve higher power densities, reducing the need for bulky cooling systems.
The manufacturing of SiC devices relies on ion implantation, a process that precisely introduces dopants into the semiconductor substrate. This process is more challenging for SiC compared to silicon due to its crystalline structure and higher binding energies, requiring advanced implanters capable of delivering energies above 10 MeV. The Purion XEmax™ implanter, central to this JDP, offers the industry’s highest beam currents over a broad energy range, making it uniquely suited for deep junction formation in high-voltage devices.
Superjunction technology further enhances device performance by overcoming the trade-off between breakdown voltage and on-resistance in conventional MOSFETs. By alternating p-type and n-type regions, superjunction devices maintain charge balance, enabling lower resistance at higher voltages. This innovation is crucial for next-generation applications demanding both high efficiency and high voltage operation.
Technical Challenges and Innovations
The development of 6.5 to 10kV superjunction devices involves complex technical challenges. Achieving the necessary junction depth and dopant concentration requires precise control of implantation parameters at ultra-high energies. The Purion XEmax’s patented Boost technology allows for the generation of high-energy beams with improved beam current and reduced contamination, addressing critical manufacturing hurdles.
Uniformity across large wafer areas is essential for superjunction architectures, as minor variations can impact device performance and reliability. The XEmax system’s beam line optimization and advanced angle control capabilities provide the precision needed for high-yield, high-volume manufacturing.
Beyond device development, the partnership aims to establish scalable, production-worthy processes. This focus on manufacturability is vital for translating research breakthroughs into commercial products that meet the demands of automotive, aerospace, and industrial customers.
“High voltage SiC power devices are an important enabler for a wide array of critical emerging applications and future endeavors, including hypersonic travel, electric propulsion, and space exploration.” , Dr. Ljubisa Stevanovic, Chief Engineer, GE Aerospace Research
Market Drivers and Application Areas
The SiC power device market is experiencing robust growth, driven by trends in electrification, renewable energy, and advanced transportation. Electric vehicles (EVs) require power electronics that can handle high voltages and currents efficiently, directly influencing vehicle range and performance. SiC devices enable smaller, lighter, and more efficient powertrains, supporting the automotive industry’s shift towards electrification.
Aerospace applications benefit from SiC’s ability to operate at high temperatures and voltages, reducing cooling requirements and system complexity. For example, GE Aerospace’s SiC power modules already achieve 40% space savings and double the cooling capacity compared to conventional designs, addressing the strict size and weight constraints of aircraft and spacecraft.
Renewable energy systems, such as solar and wind, rely on high-efficiency power conversion to maximize output and grid integration. SiC devices’ superior performance at high voltages supports the deployment of more resilient and efficient power grids, a key priority as renewable energy adoption expands globally.
Corporate Profiles and Strategic Positioning
Axcelis Technologies, headquartered in Beverly, Massachusetts, is a global leader in ion implantation solutions for semiconductor manufacturing. The company’s Purion platform covers high-energy, high-current, and medium-current implant applications, with a dominant market share in SiC-specific equipment. In 2024, Axcelis reported $1.02 billion in revenue, with power device markets accounting for a significant portion of system shipments.
Axcelis’s strategic focus on SiC processing aligns with industry trends toward electrified transportation and energy systems. The capital intensity of SiC device fabrication, about five times greater than for silicon, creates substantial revenue opportunities for equipment suppliers. Axcelis’s comprehensive toolset and process expertise foster long-term partnerships with leading semiconductor manufacturers.
GE Aerospace brings deep expertise in SiC technology, with a research legacy spanning more than three decades. The company’s SiC-based power products are deployed in avionics and electrical systems for commercial aircraft and ground vehicles. GE Aerospace’s ongoing research targets future flight operations in extreme environments, including hypersonic vehicles and electric propulsion, underscoring the strategic importance of high-voltage SiC devices.
Role of the CLAWS Hub and Government Policy
The Axcelis-GE Aerospace JDP is embedded in the CLAWS Hub, part of the U.S. Department of Defense’s Microelectronics Commons program. This initiative, led by North Carolina State University, aims to accelerate the development and commercialization of wide bandgap semiconductors through coordinated academic, industry, and government collaboration.
Federal investments, including $19 million for the CLAWS Hub, reflect recognition of wide bandgap semiconductors as critical for national security and economic competitiveness. The CHIPS and Science Act further supports domestic semiconductor manufacturing, with the goal of increasing the U.S. share of global advanced logic capacity from zero to 28% by 2032.
Industry partners in the CLAWS Hub include MACOM, Coherent Corp., and Adroit Materials, among others, providing a comprehensive ecosystem for technology development and supply chain resilience. These Partnerships are designed to bridge the gap between research innovation and scalable manufacturing.
“Axcelis is committed to providing equipment and process expertise that enables our customers’ superjunction device roadmaps.” , Russell Low, President and CEO, Axcelis Technologies
Global Competition, Supply Chain, and Future Outlook
The international landscape for SiC technology is highly competitive. While Asia-Pacific currently dominates SiC device consumption, North America and Europe lead in equipment and materials innovation. U.S. initiatives like the CLAWS Hub and CHIPS Act are responses to both economic opportunity and strategic concerns about supply chain vulnerabilities, particularly given Taiwan’s central role in global semiconductor manufacturing.
Axcelis’s main competitor in ion implantation is Applied Materials, but Axcelis’s specialized focus and comprehensive Purion platform provide differentiation, especially for SiC applications. The technical complexity and capital requirements of SiC device manufacturing create high barriers to entry, favoring established players with deep process expertise.
Looking forward, the market for SiC devices is expected to grow rapidly, with expanding applications in automotive, aerospace, industrial automation, and energy. The successful commercialization of 6.5 to 10kV superjunction devices could unlock new system architectures, enabling more efficient power conversion and grid integration. Future technology roadmaps may extend beyond SiC to include ultrawide bandgap materials like gallium oxide and diamond, leveraging the manufacturing and process knowledge developed through current partnerships.
System-Level and Economic Impact
The impact of high-voltage SiC devices will be felt across multiple sectors. In automotive, they enable higher voltage architectures that support faster charging and improved efficiency. In aerospace, they reduce system weight and complexity, supporting next-generation electric propulsion and hypersonic applications. For the energy sector, they facilitate more resilient and efficient grid infrastructure.
Economic benefits include not only direct revenue from device and equipment sales but also broader productivity gains and job creation in advanced manufacturing. The CLAWS Hub’s focus on workforce development and regional technology clusters is designed to amplify these effects, positioning the U.S. as a leader in wide bandgap semiconductor innovation.
As the industry continues to evolve, partnerships like that between Axcelis and GE Aerospace will be critical for maintaining technological leadership and meeting the demands of emerging applications. The integration of advanced power devices into system-level solutions will drive further innovation, efficiency, and competitiveness across the global economy.
Conclusion
The Axcelis-GE Aerospace Joint Development Program marks a significant step forward in the evolution of high-voltage silicon carbide power devices. By combining Axcelis’s ion implantation technology with GE Aerospace’s SiC research expertise, the partnership is set to deliver production-ready superjunction devices that address the needs of automotive, aerospace, energy, and defense sectors.
Supported by federal initiatives and embedded within a robust ecosystem of academic and industry partners, this collaboration exemplifies the strategic approach needed to advance semiconductor technology and secure domestic supply chains. As SiC devices become increasingly central to the electrification of transportation, modernization of the grid, and the development of advanced computing and defense systems, the outcomes of this partnership will shape the future of power electronics and the broader semiconductor industry.
FAQ
What is the significance of silicon carbide (SiC) in power electronics?
SiC’s wide bandgap allows devices to operate at higher voltages, temperatures, and frequencies than traditional silicon, enabling more efficient, compact, and robust power electronics for automotive, aerospace, and energy applications.
What makes the Axcelis-GE Aerospace partnership unique?
The partnership combines Axcelis’s leadership in high-energy ion implantation with GE Aerospace’s extensive SiC device research, targeting production-ready 6.5 to 10kV superjunction devices, a capability not widely available in the industry.
How does the CLAWS Hub support this collaboration?
The CLAWS Hub, funded by the U.S. Department of Defense and led by NC State University, provides a framework for coordinated research, development, and commercialization of wide bandgap semiconductors, supporting the Axcelis-GE Aerospace JDP and broader industry growth.
What are the main application areas for high-voltage SiC devices?
Key applications include electric vehicles, aerospace propulsion, renewable energy systems, advanced grid infrastructure, and emerging fields like quantum computing and AI.
What are the market prospects for SiC technology?
The global SiC market is projected to reach $12.39 billion by 2034, driven by electrification trends and increasing demand for high-efficiency power electronics.
Sources:
Electric Aircraft
Vertical Aerospace Gains AS9100 Quality Certification From BSI
Vertical Aerospace believes it is the first eVTOL developer with AS9100, awarded by BSI for its design and production quality system.

Vertical Aerospace has received AS9100 certification for the quality management system that covers its design and production work, and the Bristol-based developer of the Valo electric vertical take-off and landing (eVTOL) aircraft believes it is the first eVTOL developer to achieve the standard. The British Standards Institution (BSI) awarded the certificate after an independent assessment that closed a year-long quality improvement programme at the company.
In a press release dated November 12, 2026, and announced on World Quality Day, Vertical said the certification confirms that its quality management system across design and production meets the standards used by manufacturers such as Airbus and Boeing. The company said it gives airline customers and operating partners independent assurance about its future aircraft production and delivery, and supports opportunities where AS9100 is required. The certificate comes as Vertical prepares to build its first certification-conforming aircraft, and after it announced a review of strategic alternatives on September 24, 2026.
What the AS9100 standard covers
AS9100 was developed by the International Aerospace Quality Group (IAQG) and builds on ISO 9001 with requirements for aviation, space and defence. The IAQG states that the standard can be used “at all levels of the supply chain by organizations around the world,” and that it is intended to improve quality, schedule and cost performance by reducing or eliminating organisation-unique requirements.
For Vertical, the certificate is the result of a year-long quality improvement programme that ended with BSI’s independent assessment. Stuart Simpson, chief executive of Vertical Aerospace, said:
“We are leading the way in electric aviation by holding ourselves to the highest standards in aerospace.”
Simpson said achieving AS9100 means the company’s quality management system is certified against the same standard used by established manufacturers such as Airbus and Boeing. “It is what our customers expect,” he said, adding that this is the discipline Vertical is bringing to Valo and to building a company customers can depend on.
Giancarlo Silvestri, Global Head of Aerospace and Defence (Assurance) at BSI, called the accredited certification “an important step in Vertical’s development as an aerospace manufacturer,” and said it gives airline customers and operating partners greater confidence in the quality management foundations behind the company’s ambitions.
A quality certificate alongside the regulator’s approvals
The AS9100 certificate comes from BSI. Vertical’s design organisation approval comes from the UK Civil Aviation Authority (CAA). In its release of March 30, 2023, Vertical said the CAA had issued it a Design Organisation Approval (DOA), number UK.21J.1001, the first DOA the CAA had issued to an eVTOL manufacturer. The CAA’s assessment for that approval covered Vertical’s procedures, quality management system, technical workforce competence, and facilities and equipment.
The same release said UK and European companies need a DOA to hold a Type Certificate, which Vertical described in July 2024 as a prerequisite for commercial service. On July 10, 2024, the company said the CAA had expanded the scope of the approval so that its own engineers could certify compliance in more technical areas, including further flight control, avionics and electrical systems activities. That release also said the European Union Aviation Safety Agency (EASA) and the CAA had agreed how they would collaborate on certification, setting up common standards and concurrent certification and validation of the VX4. Vertical unveiled Valo, which succeeds the VX4 prototype, on December 10, 2025.
Where the Valo programme stands
Valo is a piloted, four-passenger eVTOL whose cabin can expand to six seats, according to the December 2025 launch release, which gave a range of up to 100 miles at speeds of up to 150 mph. That release targeted certification in 2028, working with the CAA and EASA, and planned seven certification aircraft built in the UK.
The company’s more recent statements give 2029. In a release dated September 25, 2026, announcing the opening of its Aircraft Assembly Centre at Cotswold Airport, Vertical said the £1.5 million facility would build certification-conforming aircraft for compliance and verification testing with the CAA, targeting Type Certification in 2029. Assembly of the first certification-conforming aircraft is expected to begin in the fourth quarter of 2027.
After certification, the centre is expected to support initial customer deliveries, with capacity to assemble more than 25 Valo aircraft a year in the early-production phase. Higher-volume manufacturing will take place at a separate facility, and Vertical said it expected to announce plans for it in the fourth quarter of 2026.
In flight testing, Vertical said in its H1 2026 business update that in April it became the second company globally to complete a piloted transition flight in a full-scale tiltrotor eVTOL, and that it flew five consecutive days of piloted transition demonstrations at the Farnborough International Airshow in front of more than 140,000 visitors. The company has said it remains on track to complete its Critical Design Review by year-end 2026. On October 16, 2026, it announced supplier agreements for seating and inertial reference systems with ANH Structure and Northrop Grumman LITEF.
Financing, customers and the strategic review
On September 24, 2026, Vertical announced a review of strategic alternatives, including potential strategic and financial partnerships, and retained Jefferies LLC as financial advisor. It said operations, the certification programme and commercial commitments would continue during the review, that no timetable had been set, and that there was no assurance the review would result in any transaction or outcome. The company said it would not disclose developments unless its board approves a specific course of action, decides further disclosure is appropriate, or disclosure is required by law.
That announcement followed approximately $100 million of new financing and the appointment of former Airbus Commercial Aircraft chief executive Fabrice Brégier as chair. In its H1 2026 business update, Vertical reported cash and cash equivalents of approximately $134 million (£99 million) as of August 13, 2026, and expected net cash outflows of approximately $150 million (£110 million) over the following 12 months. It said short-term liquidity, remaining financing proceeds and anticipated future draws were expected to provide at least 12 months of runway.
Vertical reports about 1,500 pre-orders for Valo from customers on four continents, including American Airlines, Avolon, Bristow, GOL and Japan Airlines, and says certain customer obligations are expected to be fulfilled through third-party agreements. The company, headquartered in Bristol, UK, works with Honeywell, Syensqo and Sonaca and develops its own battery and propeller technology.
Electric Aircraft
Archer and Formula 1 to Explore Air Taxi Flights at Grand Prix Races
Archer and Formula 1 announced a multi-year partnership to study Midnight eVTOL transfers for VIPs and fans at select Grand Prix circuits.

Archer Aviation and Formula 1 have announced a multi-year partnership to explore flying VIPs and fans to and from Grand Prix circuits aboard Archer’s Midnight electric air taxi, including dedicated landing points at circuits and air taxi services within F1’s hospitality and ticketing offerings.
Archer announced the agreement in a press release dated November 12, 2026. The partnership covers select Grands Prix that align with what Archer calls key commercial markets in the US, the Middle East, Asia and Europe. The release gives no financial terms and no date for a first air taxi flight at a race, and it describes the work as something the partners will explore.
What the partners plan to study
According to the release, the two companies will look at dedicated air taxi drop-off and pick-up locations at circuits, and at including air taxi services in F1’s hospitality and ticketing offerings. Once Archer’s commercial electric vertical takeoff and landing (eVTOL) operations launch in F1 markets, fans could skip traffic between major airports, business hubs and other key destinations, Archer said.
Emily Prazer, Chief Commercial Officer of Formula 1, said in the release:
“Innovation is at the heart of Formula 1, and Archer shares our passion for pushing boundaries and exploring what is possible.”
Adam Goldstein, Archer’s founder and CEO, pointed to the size of the sport’s audience, saying “With 830 million fans worldwide, Formula 1 gives us a global audience of prospective passengers”. He added that motorsport and aerospace share the same engineering DNA, and that the companies hope to show how innovation on the ground and in the sky could combine for fans at the track.
Archer also drew a technical comparison. It said the power-to-weight demands of eVTOL aircraft are comparable to those of F1, and that, as in an F1 car, its electric propulsion, advanced composites and aerodynamics are engineered as one system.
Where Archer’s planned networks meet the race calendar
Archer said its planned US air taxi networks map closely to F1 race locations, including Miami and Texas, where it has unveiled planned infrastructure networks. Its Texas plan, announced on October 23, 2026, includes an Austin network connecting Austin-Bergstrom International Airport and Austin Executive Airport with the F1 Circuit Helipad at the Circuit of the Americas, which Archer said would put Formula 1 United States Grand Prix races minutes away. The same plan covers Dallas-Fort Worth and Houston, and Archer said Midnight could turn 60 to 90 minute ground trips into 10 to 20 minute flights.
In South Florida, Archer’s Miami network plan of December 2025 named Hard Rock Stadium, home of the Formula 1 Crypto.com Miami Grand Prix, among the sites whose existing helipads will be prepared for electric operations. That network would also link Miami International Airport (MIA), Fort Lauderdale-Hollywood International Airport (FLL) and Palm Beach International Airport (PBI).
The partnership already has a public side. Archer displayed Midnight at the Formula 1 United States Grand Prix in Austin, October 22 to 25, in the Fan Zone and F1 Paddock as an Official Supporter of F1, and the aircraft will be displayed again at the Las Vegas Grand Prix and the Abu Dhabi Grand Prix later in 2026, according to the release. Archer’s third-quarter results release of November 9, 2026, had already said the two companies were forming a multi-year strategic alliance.
Where Midnight stands
Midnight is a piloted electric air taxi that carries up to four passengers and has 12 total engines and propellers, according to Archer. In its third-quarter update and FAA certificate news, Archer said Midnight had received a Market Survey Special Airworthiness Certificate from the FAA, which the company expects to allow operations in Los Angeles. The company said it is preparing to carry passengers under the US Department of Transportation’s eVTOL Integration Pilot Program (eIPP) and for the LA28 Olympic Games.
The eIPP is the framework for Archer’s planned Texas and Florida operations. In March 2026, the Department of Transportation and the FAA selected Archer’s partners in Texas, Florida and New York for the program, and Archer said at the time that it planned early Midnight operations in those states as soon as the second half of 2026. Archer, BETA and Macquarie Capital also launched the ACES charging consortium, which aims to electrify up to 250 air taxi sites across America by 2030 and is working with the Texas Department of Transportation on charging to support eIPP operations in Texas.
Archer reported third-quarter 2026 revenue of $5.1 million and a net loss of $274.6 million, with total liquidity of $1.4 billion. The company said its acquisition of Boeing’s Wisk, Insitu and SkyGrid businesses is nearing close, subject to certain regulatory approvals and other closing conditions.
What the announcement leaves open
The release names no race where air taxi transfers would be offered first, and gives no pricing or start date. It ties services for fans to the launch of Archer’s commercial eVTOL operations in F1 markets.
Archer’s forward-looking statements list aircraft design and specifications, development and certification timing, air taxi network plans including the eIPP, and the expected benefits of collaborations such as the one with Formula 1 among the matters that could differ from its plans.
Technology & Innovation
Eve Vector Software Handles Over 100 Helicopter Flights at Interlagos
Eve Air Mobility’s Vector software managed helicopter slots for Revo at Interlagos, peaking at more than 100 flights on November 8, 2026.

Eve Air Mobility’s Vector software managed landing and takeoff slots at the temporary helipad serving São Paulo’s Interlagos Circuit during the motorsport weekend there, with traffic peaking at more than 100 helicopter flights on Sunday, November 8, 2026. Revo, the São Paulo helicopter operator that Eve calls its first electric Vertical Takeoff and Landing (eVTOL) aircraft customer, ran the system at the event for the second year in a row.
In a press release distributed on November 13, 2026, Eve, an Embraer Group company, said Revo’s team used Vector at the helipad set up at the Ayrton Senna Kart Track, next to the circuit, for scheduling and slot management of landings and takeoffs. Eve described the event as the largest international motorsport event, and said the software had been tested at the same event in 2025.
What Vector did at Interlagos
Vector is Eve’s urban air traffic management software. According to the release, it is built on a modular architecture, with Helipad and Vertiport (Aerodrome) and Ground Operations modules that let operators manage high-volume activity across vertiports and helipads. Eve said the software is designed to provide safe and efficient low-altitude air traffic management through automation and data-driven services, and said it represents a new step toward automated, scalable traffic management for Advanced Air Mobility (AAM) in Brazil and worldwide.
Eve said its team supported Revo’s operational staff throughout the weekend so that operations ran smoothly, effectively and “100% safely” across all three days of the event. The release does not give a total number of flights for the weekend or the number of helicopters involved; the only traffic figure is the peak of more than 100 flights on the Sunday.
Johann Bordais, chief executive of Eve Air Mobility, tied the result to the weekend’s traffic:
“The efficient use of Vector over a weekend that concentrates one of the highest volumes of helicopter traffic in Brazil throughout the year demonstrates the full maturity of our solutions for the urban mobility ecosystem.”
Bordais added that Revo will be Eve’s first eVTOL customer in Brazil and globally. João Welsh, chief executive of Revo, said the partnership with Eve “represents a major step in this direction,” both for bringing eVTOLs into Revo’s operations and for developing urban air traffic management solutions.
How the 2026 deployment compares with 2025
This was not Vector’s first outing at the circuit. On November 10, 2025, Eve announced the software’s first real-world deployment, with Revo, during the 2025 São Paulo Grand Prix. Revo’s team used Vector from November 7 to 9 that year to manage helicopter operations at the Interlagos racetrack, after training by Eve’s TechCare and Vector teams. Eve said at the time that future Vector operations were planned at other sites, including residential and commercial hubs.
The product description has moved since then. In November 2025, Eve listed a Vertiport and Ground Operations Module and said a Fleet Operations Module for helicopter and eVTOL operators was planned for 2026. The November 2026 release lists separate Helipad and Vertiport (Aerodrome) and Ground Operations modules and gives 2027 for the Fleet Operations Module. The release does not explain the change in timing. Eve says the fleet module will address the needs of helicopter and eVTOL operators as Urban Air Mobility networks expand.
The Revo contract behind the partnership
Revo is part of Omni Helicopters International (OHI), which, according to the November 2026 release, manages a fleet of approximately 90 helicopters and operates over 1,500 weekly flights. In a release dated June 15, 2025, Eve announced its first binding framework agreement with Revo and OHI, covering up to 50 eVTOLs, entry-into-service support and aftermarket services, including Eve’s TechCare package. Eve’s release for that deal was headed as a $250M contract, and the earlier work between the companies had included simulations of urban air traffic management using Vector.
The June 2025 release named Revo as launch operator for Eve’s eVTOLs in São Paulo, with first delivery planned for Q4 2027, and said the city has over 400 registered helicopters and nearly 2,000 daily takeoffs and landings. The November 2026 release says Revo is positioned to operate the technology in Brazil starting in 2028.
Where Eve’s eVTOL program stands
Eve reports a backlog of over 2,700 aircraft, including firm orders and letters of intent, across 28 customers in 10 countries. It has completed more than 73 flights since its flight test campaign began in 2025, after more than 10,000 hours of integrated ground testing. On August 3, 2026, Eve announced its first partial transition flight, in which the prototype’s rear pusher propeller was activated in the air for the first time and the aircraft reached a stabilized speed of 27 knots.
Eve plans to build six certification prototypes for a certification campaign starting in 2027, working with Brazil’s National Civil Aviation Agency (ANAC) and the FAA. Once the aircraft is certified, and through the end of 2028, it will be built at a facility under development in Taubaté, São Paulo, with initial capacity of up to 120 aircraft per year and room to expand to up to 480 aircraft annually.
-
Space & Satellites6 days agoNASA Picks Eight Firms for $10 Billion CLPS 2 Moon Delivery Contract
-
Regulations & Safety6 days agoFAA Proposes Tighter Falcon 7X Airworthiness Limits for 161 US Jets
-
Company Performance6 days agoArcher Midnight Gets FAA Certificate for LA Operations in Q3 Update
-
Commercial Aviation5 days agoSavannah Airport Opens 36-Acre Air Cargo Complex and Taxiway G Bridge
-
Aircraft Orders & Deliveries5 days agoLufthansa Receives First Airbus A350-1000, Its 700th Airbus Aircraft
