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Airbus Triples Computing Power With Two HPC6 Supercomputers

Airbus installed two Bull HPC6 supercomputers, tripling throughput to support digital testing for the A350 Freighter and future rotorcraft.

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Airbus has deployed two new high-performance supercomputers, tripling its computational throughput to accelerate the digital design and testing of next-generation Commercial-Aircraft and rotorcraft.

In a company publication released on June 9, 2026, the European aerospace Manufacturers detailed its installation of two HPC6 systems provided by Bull, a European advanced computing and artificial intelligence firm. The upgraded infrastructure allows Airbus engineers to substitute physical testing with high-fidelity digital calculations, a transition the company has been advancing for two decades.

Expanding digital testing capabilities

The integration of the HPC6 supercomputers enables Airbus to evaluate complex aircraft configurations with greater precision. The application of high-performance computing at the manufacturer has expanded beyond traditional flight physics and airframe development to include powerplant and systems testing.

Engineers can now conduct digital simulations for scenarios that previously required extensive physical trials, such as birdstrike resistance on cockpit windows and engine components.

Supercomputers help create finer 3D representations of objects, enabling the exploration of more complex design and more detailed simulations to achieve higher fidelity.

Jean Gutierrez, Scientific Computing Product Manager in Engineering at Airbus, noted that the increased capacity allows the engineering team to handle larger problems. The enhanced computing power moves the design process closer to reality by reducing the allowable margin of error, which would otherwise necessitate physical testing.

Current program support and energy management

The newly installed HPC6 systems are already operational and supporting active Airbus programs. The manufacturer confirmed the supercomputers are currently utilized in the development of the Airbus A350 Freighter, alongside future Helicopters platforms.

To mitigate the energy footprint of the expanded computing infrastructure, Airbus is developing a local heat exchange system. The initiative is designed to capture the thermal output generated by the supercomputers and redirect it into local power grids.

AirPro News analysis

We view the tripling of Airbus’ computational power as a necessary infrastructure investment to maintain pace with the industry’s shift toward model-based systems engineering. As Regulations agencies demand increasingly rigorous certification data, the ability to generate high-fidelity digital simulations for extreme edge cases provides a distinct schedule advantage. The integration of a heat recovery system also demonstrates a pragmatic approach to the high energy demands inherent in advanced computing facilities.

Sources: Airbus

Photo Credit: Airbus

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Vlindair Launches as Europe’s First All-Electric Regional Airline

Dutch startup Vlindair targets 2031 service launch on routes up to 500 km, spending five years building infrastructure ahead of EASA certification.

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Dutch aviation startup Vlindair has launched with the objective of becoming Europe’s first all-electric regional passenger airline, targeting a 2031 entry into service for routes up to 500 kilometers.

In a company announcement released in July 2026, Vlindair outlined a five-year pre-launch strategy focused on securing landing rights, evaluating route demand, and establishing operational infrastructure ahead of aircraft certification. The company intends to operate first-generation electric passenger aircraft, specifically evaluating nine-seat models, as European Union Aviation Safety Agency (EASA) certification timelines mature.

Phased operational strategy

Rather than immediately acquiring aircraft, Vlindair is dedicating its initial five years to building the necessary ecosystem for commercial electric-aviation. The company cited the variable nature of aircraft development and certification timelines as the primary driver for this phased approach.

According to a 2024 report by Deloitte cited by the startup, electric aircraft could serve nearly 300 million passengers annually on intra-European Union flights by 2040. Vlindair aims to capture a portion of this emerging market by establishing the commercial framework early.

“We are not just here to be part of that market, we want to help shape it,” said Vlindair co-founder Yona Hümmels. “This means for the next years, our job is not to fly, but to build a movement by making the case to travellers, to communities, to airports, and to policymakers that electric aviation is something Europe should back.”

The company is currently raising seed funding and engaging with sustainable mobility investors across Europe to finance this pre-launch phase.

Industry partnerships and advisory board

To support its operational development, Vlindair has assembled an advisory network featuring established European aviation stakeholders. The startup is receiving strategic advice, knowledge sharing, and innovation support from Transavia Ventures.

Nico Gielen, Director of Transavia Ventures, noted that a dedicated commercial operator has been the missing component in the electric aviation ecosystem. He described Vlindair’s approach as substantive, operationally grounded, and well-positioned within the European market.

The company also announced its initial advisory board members, drawing from various sectors of the Dutch aviation industry:

  • Merlijn van Vliet, CEO of NRG2fly and E-Flight Academy
  • Gerben Groothuis, Innovation Director at Twente Airport
  • Kristina Palovicova, Lead Sustainability & Innovation at Transavia

Vlindair co-founder Sietse Bakker stated that the technology is arriving and the environmental case is undeniable. He emphasized that the company’s focus is on being ready when the aircraft are certified, aiming to create maximum value for passengers, regions, and investors.

AirPro News analysis

We note that Vlindair’s timeline aligns with the projected maturation of several European nine-seat electric aircraft programs currently in development. By focusing on the operational and regulatory groundwork now, the startup is attempting to solve the infrastructure side of the zero-emission equation before the hardware is fully certified. The 500-kilometer range target is realistic for first-generation battery-electric technology, capturing a segment of the European short-haul market that is under increasing regulatory pressure to decarbonize. Securing landing rights and establishing charging infrastructure at regional airports will likely be the most significant hurdles during the company’s five-year pre-launch phase.

Sources: Vlindair, Deloitte

Photo Credit: Vlindair

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Joby Aviation and Virgin Atlantic Finalize UK eVTOL Agreement

Joby Aviation and Virgin Atlantic sign a binding UK air taxi deal at Farnborough 2026, targeting Heathrow and Manchester hubs.

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Joby Aviation, Inc. and Virgin Atlantic have finalized a multi-year commercial agreement to launch electric air taxi services in the United Kingdom, establishing Virgin Atlantic as the exclusive airline partner for the manufacturer’s UK operations.

The binding agreement, signed at the Farnborough International Airshow on July 22, 2026, formalizes a partnership initially announced in 2025. According to a Joby Aviation press release, the deal will integrate ground-to-airport air taxi flights into Virgin Atlantic’s booking channels, allowing passengers to schedule connections to long-haul flights using Joby’s all-electric vertical take-off and landing (eVTOL) aircraft.

Planned UK operations and hubs

The companies plan to establish initial operational hubs at London Heathrow Airport (LHR) and Manchester Airport (MAN). Joby expects its aircraft, which features six tilting propellers and a maximum route deployment range of 100 miles, to significantly reduce ground transfer times.

Early route planning estimates a flight time of eight minutes from London Heathrow to Central London. In northern England, flights from Manchester Airport to Leeds are projected to take 15 minutes.

“This agreement marks an exciting next chapter in our partnership with Joby and a significant step towards bringing electric air taxi services to the UK. Together, we’ll create more seamless journeys for our customers, making it easier than ever to travel between towns, cities and our airports,” Virgin Atlantic CEO Corneel Koster said in the company statement.

Certification progress and Delta partnership

The UK agreement expands upon Joby’s existing mutually exclusive partnership with Delta Air Lines, which was established in 2022 to pioneer community-to-airport transportation in the United States. Delta Air Lines currently holds a 49 percent stake in Virgin Atlantic.

Joby is currently navigating the regulatory approval process to bring its aircraft to market. According to reporting by Aerospace Global News, Joby founder and CEO JoeBen Bevirt confirmed at the Farnborough Airshow that the company is now in the fifth and final stage of aircraft certification with the Federal Aviation Administration (FAA).

The manufacturer submitted its validation application for UK certification in 2022 under the Bilateral Aviation Safety Agreement between the FAA and the UK Civil Aviation Authority (CAA). Bevirt told Aerospace Global News that the company’s goal is to conduct its first UK flight from London to Farnborough in 2028.

AirPro News analysis

We view this finalized agreement as a logical consolidation of Joby Aviation’s transatlantic strategy. By leveraging the existing equity and joint venture relationship between Delta Air Lines and Virgin Atlantic, Joby secures a captive premium passenger base in two of the world’s most congested urban airspaces. The 2028 target for initial UK flights aligns with the typical timeline for completing FAA certification and securing subsequent CAA validation. However, regulatory timelines at both agencies remain the primary pacing factor for the entire eVTOL sector, and infrastructure development at major hubs like London Heathrow will require significant coordination with local authorities.

Sources: Joby Aviation

Photo Credit: Joby Aviation

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Collins Aerospace Completes 1MW Hybrid-Electric Powertrain Test

Collins Aerospace finishes SWITCH project lab testing of a 1MW hybrid-electric powertrain, advancing Clean Aviation goals for single-aisle aircraft.

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On July 22, 2026, Collins Aerospace announced the successful completion of integrated lab testing for a 1-megawatt hybrid-electric powertrain subsystem, marking a critical milestone in the European Union’s Clean Aviation SWITCH project. The technology will now transfer to Airbus for aircraft-level integration, advancing the development of microhybridization for next-generation single-aisle commercial aircraft.

In a press release issued during the Farnborough International Air Show, the RTX business unit confirmed that the testing took place at The Grid, its electric power systems laboratory in Rockford, Illinois. The subsystems operated successfully alongside simulated aircraft and engine systems. The initiative aims to reduce fuel consumption and emissions by at least 30 percent compared to 2020 state-of-the-art aircraft, aligning with the broader goals of the Clean Aviation Joint Undertaking.

Powertrain specifications and the SWITCH project

The testing at The Grid involved an 800-volt powertrain and two 1-megawatt class motor generators integrated into a simulated Pratt & Whitney Geared Turbofan (GTF) engine. According to reporting by Aviation Week, the total power of the turbine engine being hybridized is approximately 20 megawatts, while The Grid laboratory itself possesses an 8-megawatt total power capacity.

The four-year SWITCH project, launched in January 2023 with a budget of £67.6 million ($77.1 million), represents a collaborative effort involving Collins Aerospace, Airbus, Pratt & Whitney, GKN Aerospace, and MTU Aero Engines. Kristin Smith, Vice President of Electric Power Systems at Collins Aerospace, noted the scale of the achievement.

“This is the largest integrated systems test conducted at The Grid since its opening in 2023,” Smith stated in the company release. “By combining our technology expertise with deep industry collaboration, we are demonstrating how hybrid-electric systems can significantly reduce fuel consumption for next-generation aircraft.”

Transitioning to the LEIA project and Airbus integration

With the SWITCH testing phase complete, focus now shifts to the Airbus-led Large scalE Integration demonstrator of hybrid electrical Architecture (LEIA) project. Preliminary work for LEIA began in December 2025. Collins Aerospace will act as the technical lead for energy sources, supplying scalable electric motor generators, electronic controllers, and power distribution equipment.

Future testing for the LEIA project will span multiple European sites, including facilities in Toulouse, France; Frankfurt, Germany; Cork, Ireland; Rome, Italy; and Solihull, United Kingdom. Aviation Week reports that ground demonstration tests are planned for 2027 at Airbus facilities in Toulouse, utilizing a modified Airbus A400M iron bird test rig.

The technology centers on microhybridization, which allows for power extraction, insertion, and transfer between the high- and low-pressure shafts of the engine. This capability can be utilized for taxiing, takeoff power boosts, and transient operating conditions. Aviation Week identifies this system as a leading candidate for Airbus’s next-generation single-aisle aircraft concept, known as the eAction.

“One of the advantages of hybrid-electric propulsion is not to have this power takeoff wasted, but to use it,” Pierre Durel, Project Officer at Clean Aviation, told Aviation Week.

AirPro News analysis

We view the successful integration testing at The Grid as a strong indicator that microhybridization is maturing from a conceptual framework into a viable hardware pathway for the mid-2030s single-aisle replacement cycle. The €4.1 billion Clean Aviation Joint Undertaking is heavily incentivizing European and US aerospace manufacturers to collaborate on these transitional technologies. By targeting a 2030 timeline to reach Technology Readiness Level (TRL) 6, the consortium is aligning its development schedule precisely with the anticipated launch windows for the successors to the Airbus A320neo and Boeing 737 MAX families. The ability to extract and insert power dynamically across engine shafts offers a pragmatic step toward emission reductions without requiring the immediate leap to fully electric-aviation or hydrogen propulsion systems.

Sources: RTX

Photo Credit: RTX

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