Technology & Innovation
Thomas Pesquet Joins Airbus Flight Test School for Lunar Mission Prep
ESA astronaut Thomas Pesquet trains as Airbus flight test pilot to fulfill NASA Artemis lunar mission requirements and enhance aerospace collaboration.
From Orbit to Flight Test: Thomas Pesquet’s New Frontier at Airbus
In a significant move that bridges the gap between space exploration and aviation, European Space Agency (ESA) astronaut Thomas Pesquet is embarking on a new mission, not in orbit, but on the tarmac. The celebrated French astronaut, who has logged nearly 400 days on the International Space Station (ISS), is joining Airbus to train as a flight test pilot. This strategic career step is not just a return to his piloting roots but a calculated move with his sights set firmly on a future lunar mission. Pesquet’s transition highlights the intricate and symbiotic relationship between the aerospace and aviation industries, where skills honed in one domain are invaluable in the other.
Pesquet’s journey to become a test pilot is a testament to the evolving requirements for the next generation of space explorers. As humanity pushes the boundaries of exploration with programs like NASA’s Artemis, the demands on astronauts are becoming more rigorous. The Artemis program, which aims to return humans to the Moon, specifically emphasizes the need for crew members with test pilot qualifications. By joining the Airbus Flight Test School’s ‘Class of ’26’ in Toulouse, Pesquet is proactively acquiring the credentials necessary to be a prime candidate for these challenging missions, positioning not only himself but also Europe for a coveted seat on a future lunar flight.
This collaboration is a two-way street, offering substantial benefits to both the astronaut and the aerospace giant. While Pesquet gains a critical qualification, Airbus secures the expertise of an individual with unparalleled experience in extreme environments. His extensive time on the ISS, working with complex systems like the Russian Soyuz and SpaceX Dragon capsules, provides him with a unique perspective on human-machine interfaces. This experience is a valuable asset for Airbus as it continues to innovate and refine the cockpits and control systems of its next-generation aircraft.
A Strategic Leap Towards the Moon
The decision for Thomas Pesquet to pursue a flight test pilot qualification is driven by a clear and ambitious goal: the Moon. NASA’s Artemis program represents a new era of space exploration, moving beyond the now-familiar territory of low-Earth orbit. The vehicles and technologies being developed for these lunar missions are at the cutting edge, and their testing phase is critical. Pesquet himself has noted the emphasis on these qualifications, stating, “Artemis vehicles are being tested as we speak… For that reason, there’s a lot of emphasis on test pilot qualifications. It’s written in black and white that some of the mission’s crew members will need to have those qualifications.”
The training program at Airbus is notoriously demanding. Pesquet will be a student like any other, immersed in a rigorous curriculum that includes both theoretical classroom sessions and a practical flight phase. This hands-on phase will see him testing a wide array of aircraft, from nimble aerobatic planes to the sophisticated A350-1000. Jean-Philippe Cottet, the head of Airbus Flight Tests, emphasized the intensity of the program, noting the high level of engagement and focus required to prepare, execute, and analyze the results of each test flight. This comprehensive training ensures that graduates are among the most skilled and specialized pilots in the world.
This endeavor is more than just a personal career move; it symbolizes a powerful collaboration within the European aerospace ecosystem. The partnership between Pesquet, the ESA, and Airbus showcases a unified ambition to remain at the forefront of space and aviation. Pesquet’s journey from a commercial airline pilot for Air France to an astronaut and now a test pilot in training encapsulates a career dedicated to mastering the complexities of flight, whether in the Earth’s atmosphere or the vacuum of space. His unique background makes him a bridge between these two worlds, fostering innovation and shared knowledge.
“Space and aviation go hand in hand… The best training for a space mission is actually flying airliners.” – Thomas Pesquet
From Airline Pilot to Astronaut and Back
Thomas Pesquet is no stranger to the cockpit. Before his celebrated career as an astronaut, he was a commercial pilot for Air France, flying the Commercial-Aircraft A320. He has accumulated over 2,000 hours of flying time on various commercial airliners and is also a qualified type-rating flight instructor. This extensive aviation background provided a solid foundation for his transition to spaceflight. Pesquet has often highlighted the parallels between the two disciplines, noting that skills like crew resource management, teamwork, and maintaining composure under pressure are directly transferable from an aircraft cockpit to a space capsule.
Throughout his time as an astronaut, Pesquet has maintained his connection to aviation. He has flown the A310 on parabolic research flights, which simulate zero-gravity conditions, and serves as a reservist A330 pilot for the French Air Force. His passion for flying has kept him closely connected to the Airbus Flight Test team since 2018, often flying with them in his personal time. This long-standing relationship and his deep-seated passion for aviation made the decision to formally train as a test pilot a logical next step in his career progression.
Pesquet’s return to a formal piloting role allows him to contribute his unique operational experience to Airbus. Having operated some of the most advanced human-machine interfaces ever created, including those on the ISS and the spacecraft that travel to it, he brings a fresh perspective. He aims to leverage this experience to “think outside the box” and contribute to the design and testing of future aircraft systems. This cross-pollination of ideas, from space back to aviation, is invaluable for driving innovation and enhancing the safety and efficiency of future flight technologies.
Conclusion: A New Chapter in European Aerospace
Thomas Pesquet’s decision to train as a flight test pilot with Airbus marks a pivotal moment, not just for his career, but for the broader European aerospace industry. It underscores a strategic alignment of goals between space agencies and private industry, recognizing that the future of exploration requires a new breed of professional with a diverse and highly specialized skill set. By pursuing this qualification, Pesquet is directly addressing the stringent requirements of future lunar missions, significantly increasing the likelihood of European participation in humanity’s return to the Moon.
This collaboration is a powerful symbol of the interconnectedness of aviation and space exploration. The skills and experiences gained in one field are proving to be indispensable in the other. As Pesquet trades his spacesuit for a flight suit, he brings with him a wealth of knowledge from the frontiers of space, ready to apply it to the cutting edge of aviation technology. His journey is a compelling narrative of continuous learning and adaptation, reflecting the dynamic and ambitious spirit that drives the aerospace sector forward into new and exciting frontiers.
FAQ
Question: Why is Thomas Pesquet training to be a flight test pilot?
Answer: Thomas Pesquet is training to become a flight test pilot to meet the qualifications required for future lunar missions under NASA’s Artemis program. The program places a strong emphasis on having crew members with test pilot experience due to the new and untested nature of the vehicles involved.
Question: What is Thomas Pesquet’s background in aviation?
Answer: Before becoming an astronaut, Thomas Pesquet was a commercial pilot for Air France, flying the Airbus A320. He has over 2,000 hours of flying time and is also a qualified flight instructor. He has also flown the A310 for parabolic flights and is a reservist A330 pilot for the French Air Force.
Question: How will Airbus benefit from this collaboration?
Answer: Airbus will benefit from Pesquet’s unique and extensive experience with various advanced human-machine interfaces from his time on the International Space Station and flying in Soyuz and SpaceX Dragon capsules. This perspective is valuable for the development and testing of new aircraft technologies.
Sources: From Orbit to Flight Test: Thomas Pesquet Joins Airbus
Photo Credit: Airbus
Technology & Innovation
NOEMI Aerospace and SkyHop Sign MoU for 15 Electric Seaplanes
NOEMI Aerospace and SkyHop Aviation agree on up to 15 electric amphibious aircraft for India’s UDAN seaplane network by 2030.
Norwegian aircraft manufacturer NOEMI Aerospace and Indian operator SkyHop Aviation signed a Memorandum of Understanding on August 17, 2026, for the introduction of up to 15 fully electric amphibious aircraft into the Indian market.
The agreement, announced in a NOEMI Aerospace press release, aligns with the Indian government’s push to develop a large-scale seaplane network under its UDAN regional connectivity program. The deal expands NOEMI’s global commercial pipeline to over 90 aircraft and positions SkyHop to transition its future fleet toward Electric-Aviation by the end of the decade.
SkyHop’s fleet strategy and the UDAN initiative
SkyHop Aviation received its Air Operator Certificate (AOC) from India’s Directorate General of Civil Aviation (DGCA) in April 2026, becoming the country’s first dedicated commercial seaplane operator. According to reporting by Aerospace Global News, the Airlines plans to launch initial operations connecting the Lakshadweep islands using 19-seat De Havilland Canada DHC-6 Twin Otter aircraft.
The operator targets a total fleet of up to 40 aircraft by the 2030 financial year. The MoU with NOEMI covers 10 planned aircraft by that timeframe, with an option for five additional airframes. SkyHop Founder and CEO Avani Singh noted that the company’s immediate priority is building a scalable network, but that electric and hybrid aircraft will become an important part of the transition.
“Ultimately, our ambition is for SkyHop to help build the seaplane ecosystem in India, not simply operate within it. That means looking at the aircraft we fly, the infrastructure we create, the technology we adopt and, over time, the opportunity to manufacture and assemble these aircraft in India,” Singh stated.
The Indian government is planning approximately 150 new seaplane routes under the UDAN scheme to connect coastal and island regions where conventional airport infrastructure is impractical.
NOEMI Aerospace’s expanding Asian footprint
The SkyHop agreement follows a rapid expansion of NOEMI’s commercial pipeline in the Asian market. Aviation International News reported that during the week prior to the SkyHop announcement, NOEMI signed MoUs with Indian state-owned Helicopters operator Pawan Hans and Philippine operator Horizon Sun Charters.
NOEMI Aerospace Founder and CEO Eric Lithun highlighted the momentum in the region, noting clear government ambition and operators preparing to expand fleets. Eirik Sandal, Co-founder and Chief Investment Officer of NOEMI Aerospace, added that government policy, infrastructure development, and new commercial operators are aligning simultaneously in India.
Aircraft development timeline
NOEMI Aerospace, formerly known as ELFLY Group, is developing a fully electric, nine-passenger amphibious aircraft. The Manufacturers targets 2030 for the aircraft’s entry into service. According to Aerospace America, NOEMI is preparing for propulsion tests and aims to complete construction of its primary structure and a full-scale demonstrator by mid-2027.
AirPro News analysis
We view the Indian market as a critical proving ground for next-generation amphibious aircraft. The geographic realities of India’s extensive coastlines and island territories make seaplanes a logical solution for regional connectivity, but historical attempts using legacy airframes have often struggled with high operating and maintenance costs. If NOEMI can deliver on the promised operating economics of a fully electric nine-passenger aircraft by 2030, it could unlock routes that are currently unviable with turbine-powered aircraft like the DHC-6 Twin Otter. The explicit mention of potential future manufacturing and assembly in India suggests that NOEMI and SkyHop are positioning themselves to benefit from the Indian government’s domestic industrial incentives as the program matures.
Sources: NOEMI Aerospace
Photo Credit: NOEMI Aerospace
Sustainable Aviation
UK, Google and NATS Launch Contrail Avoidance Trial
Operation Blue Skies is a £5M, 30-month trial targeting contrail reduction across Shanwick oceanic airspace.
A consortium led by the UK government, Google, and air navigation service provider NATS has launched a £5 million, 30-month trial to mitigate aviation-induced warming contrails across the entire Shanwick oceanic airspace.
Announced on August 18, 2026, in a Google press release, “Operation Blue Skies” marks the commercial aviation industry’s first attempt to implement contrail avoidance at the scale of an entire flight corridor rather than on a per-airline basis. The initiative targets a phenomenon responsible for approximately one-third of the sector’s total climate impact.
Scaling AI for airspace-wide mitigation
The program will conduct two operational trials during the winters of 2026-2027 and 2027-2028. Testing will take place exclusively within the NATS-controlled Shanwick oceanic airspace, which encompasses the eastern half of the North Atlantic corridor. According to Google, this specific airspace accounts for roughly 5 percent of global contrail warming.
Google UK is participating on a pro-bono basis, providing a £1.4 million in-kind contribution that includes artificial intelligence research, engineering resources, and computing infrastructure. Google Technical Program Manager Paul Hodgson and Senior Program Manager Chaim Langermann described the initiative as “the world’s first state-backed trial to avoid contrails at the scale of an entire oceanic airspace.”
The broader consortium includes the UK Department for Transport (DfT), the Met Office, Contrails.org, Imperial College London, the University of Cambridge, and the Aerospace Technology Institute (ATI).
“We’re partnering with Google to back British experts and innovators to find practical ways to make flying cleaner. This is a world-first, and it is British ingenuity leading the way. By testing small tweaks to flight paths over the Atlantic, we can cut the vapour trails left behind by planes,” said UK Government Minister for Aviation, Maritime and Freight Keir Mather, according to reporting by Smart Cities World.
Transitioning from individual flights to systemic integration
Operation Blue Skies builds upon earlier research validating the use of AI-powered forecasts to predict and avoid contrail-forming regions. Google Research previously partnered with American Airlines, EUROCONTROL’s Maastricht Upper Area Control Centre (MUAC), and FlightKeys to demonstrate that contrail avoidance is scientifically and operationally viable for individual flights.
The new trial shifts the operational coordination to the air navigation service provider. By integrating predictive models directly into the airspace management level, NATS and its partners aim to evaluate how contrail mitigation impacts overall airspace capacity, controller workload, and flight efficiency across a high-density oceanic routing system.
AirPro News analysis
We view the shift from individual airline dispatch trials to an air navigation service provider-led model as a critical maturation in aviation sustainability efforts. If NATS can successfully integrate AI-driven contrail forecasting into the Shanwick oceanic clearance process without degrading airspace capacity or significantly increasing fuel burn, it could establish a blueprint for global air traffic management. The winter testing windows are particularly relevant, as atmospheric conditions during these months are highly conducive to persistent contrail formation over the North Atlantic. The results of this 30-month program will likely dictate whether regulators and service providers mandate contrail avoidance routing in the next decade.
Sources: Google Blog
Photo Credit: Google
Technology & Innovation
GE Aerospace Bengaluru Engineers Drive CFM RISE Program
GE Aerospace’s Bengaluru hub leads Open Fan and hybrid electric development for the CFM RISE program targeting 20% fuel burn reduction.
Engineers at GE Aerospace’s John F. Welch Technology Centre (JFWTC) in Bengaluru, India, are spearheading the development of Open Fan architecture and hybrid electric systems designed to deliver a 20 percent reduction in commercial aircraft fuel burn.
In an official company article published on August 18, 2026, GE Aerospace detailed the specific contributions of its Indian research and development hub to the CFM RISE program. The engineering push in Bengaluru follows the manufacturer’s recent flight testing milestones, including a transatlantic hybrid electric flight demonstration in July 2026.
Doubling historical efficiency gains
The CFM RISE program targets a significant leap in performance over current-generation powerplants. Previous engine iterations developed by the company, including the GE90, GEnx, GE9X, and CFM LEAP, each delivered fuel efficiency improvements of 10 to 15 percent.
Nitesh Jain, a consulting engineer with 26 years at GE Aerospace, noted that the current development cycle aims to double those historical margins. Achieving a 20 percent improvement requires fundamental changes to engine design rather than incremental updates to existing turbofan models.
“We found the only way to get this kind of step change in fuel-burn efficiency without excessive weight and drag is to remove the constraints of the engine’s cover,” Jain stated in the company release.
The resulting Open Fan architecture relies on a combination of advanced aerodynamics, thermal systems design, and additive manufacturing. Jain indicated that these disciplines must work in concert to meet future commercial aviation demands for operability, durability, and manufacturability.
Scaling hybrid electric power for high altitudes
Alongside the Open Fan design, the Bengaluru team is adapting megawatt-scale hybrid electric systems for commercial aircraft. A primary technical hurdle involves engineering electrical components that can function reliably above 30,000 feet.
Sumitha Mohan, a senior engineer who has spent four years adapting hybrid electronics for aircraft, highlighted the distinct challenges of aerospace applications compared to terrestrial electric vehicles.
“Cars are designed to operate at sea level, at normal temperatures, with relatively few weight demands. With aircraft, you need systems as power-dense as possible, so as not to negatively affect fuel burn, and that can operate at high ambient conditions,” Mohan explained.
The integration efforts in Bengaluru directly supported recent flight tests of GE Aerospace’s modified Electrified Powertrain Flight Demonstration (EPFD) aircraft. In May 2026, the EPFD testbed completed the world’s first high-altitude hybrid electric flight. Two months later, in July 2026, the aircraft crossed the Atlantic Ocean en route to the Farnborough International Airshow, demonstrating the viability of integrating a megawatt-class hybrid system with existing onboard electrical networks.
AirPro News analysis
The detailed spotlight on the John F. Welch Technology Centre underscores a broader industry shift toward distributed, globalized research and development. As engine manufacturers approach the thermodynamic limits of traditional enclosed turbofans, achieving the 20 percent efficiency target of the CFM RISE program requires concurrent breakthroughs in materials science, aerodynamics, and electrical engineering.
We view the successful high-altitude and transatlantic flights of the EPFD aircraft as critical validation points for GE Aerospace. However, transitioning these megawatt-scale hybrid systems from a modified testbed to a certifiable, production-ready commercial airliner will require sustained engineering investment. The work emerging from Bengaluru indicates that GE Aerospace is positioning its international engineering hubs to carry a substantial portion of that developmental load.
Sources: GE Aerospace News
Photo Credit: GE Aerospace
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