Technology & Innovation
Elysian and TrueNoord Partner to Advance Electric Regional Aircraft
Elysian and TrueNoord collaborate to develop the 90-seat E9X electric aircraft, focusing on commercial viability and sustainable regional aviation.
Forging the Future: Elysian and TrueNoord Partner to Electrify Regional Aviation
The global aviation industry is at a critical juncture, facing immense pressure to decarbonize its operations. While solutions like Sustainable Aviation Fuels (SAF) and hydrogen power are often cited for long-haul travel, the electrification of short-haul regional flights presents a more immediate and tangible path toward reducing emissions. It is within this context that a significant partnership has emerged, aiming to bridge the gap between ambitious technological innovation and commercial reality. Dutch electric aircraft developer Elysian Aircraft and specialist regional aircraft lessor TrueNoord have joined forces, a collaboration that signals a serious move to make large-scale Electric-Aviation financially viable.
This Partnerships, announced during the European Regions Airline Association (ERA) General Assembly, is centered on Elysian’s groundbreaking E9X aircraft. The E9X is not just another small electric plane; it is a 90-seater, battery-electric aircraft concept designed to cover distances of up to 800 kilometers. This ambition places it in a different league from most current electric aviation projects, which typically focus on smaller aircraft with much shorter ranges. By teaming up, Elysian gains the deep financial and operational expertise of an established lessor, while TrueNoord positions itself at the forefront of the industry’s sustainable transition, leveraging its “New Technology Hub” to explore the next generation of aircraft.
The collaboration is more than a simple endorsement; it is a foundational effort to build the entire commercial ecosystem around the E9X. Together, the two companies will tackle the critical economic questions that determine whether an aircraft succeeds or fails: direct operating costs, residual value, maintenance frameworks, and overall financial attractiveness for Airlines. This strategic alliance aims to ensure that when the E9X is ready for the skies, the market is ready for it, with leasing and financing models that make sense for operators and investors alike.
A Strategic Alliance: Marrying Innovation with Commercial Viability
The core objective of the Elysian and TrueNoord partnership is to integrate financial pragmatism into the very DNA of the E9X’s development. Historically, aircraft manufacturers design a product and then present it to the market. This collaboration inverts that model by involving a key market player,the lessor,from the early stages. TrueNoord’s role is to provide a crucial reality check, ensuring the aircraft is not only a marvel of engineering but also a sound, bankable asset. This involves a series of strategic sessions focused on de-risking the aircraft from a financial perspective.
For airlines, the total cost of ownership is paramount. The partnership will meticulously analyze the E9X’s projected direct operating costs, which are expected to be significantly lower than those of conventional aircraft due to massive reductions in fuel and maintenance expenses. However, questions around battery life, replacement costs, and the aircraft’s residual value after years of service are complex and unanswered for this new class of asset. TrueNoord’s expertise in asset value management is critical to developing credible models for these variables, which will ultimately determine the leasing rates and financial appeal of the E9X.
This proactive approach is designed to build confidence across the industry. By establishing a clear and viable business case, the partnership aims to attract the necessary investment and airline interest to carry the E9X program through its development, certification, and entry into service, projected for 2033. It is a recognition that technological disruption requires an equally disruptive approach to its commercialization.
“The future of aviation will not be built by technology alone, but by the strength of an ecosystem working together… Through our partnerships with airlines and now with TrueNoord… we ensure that E9X is not only technologically viable, but it also addresses commercial and financial expectations of the industry.” – Daniel Rosen Jacobson, Co-Founder and Co-CEO of Elysian Aircraft
The E9X: An Ambitious Leap in Electric Aircraft Design
The Elysian E9X represents a fundamental rethink of what a battery-electric aircraft can be. With a capacity for 90 passengers and a target range of 800 km (500 miles), it directly addresses the regional market, where a significant portion of aviation’s carbon emissions originate. To achieve this, Elysian has incorporated several innovative design features that push the boundaries of aerodynamics and electric propulsion.
One of the most striking features is its high-aspect-ratio wing. With a wingspan of 42 meters,wider than that of a Boeing 737,the E9X is designed for maximum aerodynamic efficiency. To ensure compatibility with standard Airports gates, the wings are equipped with folding tips. The batteries, a critical component, are not stored in the fuselage but are integrated across the wingspan. This clever design distributes the immense weight of the batteries evenly and places the load directly where the lift is generated, optimizing structural efficiency.
Propulsion is provided by eight 1.4 MW electric motors driving low-noise propellers distributed along the wing. This distributed propulsion system enhances safety through redundancy and improves aerodynamic performance. Safety is further bolstered by a reserve energy system, based on a gas turbine, to provide emergency power if needed. These design choices reflect a holistic approach aimed at overcoming the inherent challenges of electric flight, particularly the low energy density of batteries compared to jet fuel.
The Battery Conundrum and the Path to Certification
Despite its innovative design, the success of the E9X hinges on a critical technological hurdle: battery energy density. The aircraft’s design requires batteries with a specific energy of 360 Wh/kg. This is a significant leap from the capabilities of current, commercially available lithium-ion batteries, which offer around 250 Wh/kg. While battery technology is advancing rapidly, achieving this target is a major dependency for the entire project. Elysian’s projections are based on the anticipated evolution of battery chemistry, a factor that lies partially outside its direct control.
Beyond the batteries themselves, the project faces other substantial challenges. The development of a robust ground charging infrastructure capable of rapidly recharging an aircraft of this size is a massive undertaking that requires coordination between airports, energy providers, and regulators. Furthermore, the certification process for a novel aircraft like the E9X will be rigorous and complex. Aviation authorities like EASA and the FAA will need to develop new standards and protocols to ensure the safety of its high-voltage electrical systems and large battery packs, particularly concerning thermal management to prevent overheating.
Elysian is not navigating this path alone. The company is backed by a strong network of partners, including Fokker Services Group, KLM, and Delft University of Technology, which provides a solid foundation of aerospace expertise. The development timeline is ambitious, with a goal of achieving certification by 2030 and entering commercial service by 2033. Meeting this timeline will require not only technological breakthroughs but also a clear and efficient regulatory pathway.
Conclusion: Building a Viable Ecosystem for Electric Flight
The partnership between Elysian Aircraft and TrueNoord is more than just a collaboration on a new aircraft; it is a blueprint for how to bring disruptive, sustainable technology to the commercial aviation market. It acknowledges that innovation cannot exist in a vacuum. For a revolutionary concept like the E9X to succeed, it must be underpinned by a robust and credible financial framework that makes sense for airlines, investors, and the entire aviation ecosystem. TrueNoord’s involvement provides this essential commercial grounding, transforming the E9X from a technological dream into a potentially bankable asset.
The road ahead is undeniably challenging, with significant technological and regulatory hurdles to overcome, most notably in battery technology. However, this strategic alliance represents a calculated and pragmatic approach to tackling those challenges head-on. If successful, the E9X could redefine regional air travel, making zero-emission flights a reality for a substantial portion of the market. This partnership is a critical step in building not just an electric aircraft, but the sustainable aviation industry of the future.
FAQ
Question: What is the Elysian E9X?
Answer: The E9X is a 90-seat, battery-electric aircraft concept being developed by Dutch startup Elysian Aircraft. It is designed for regional routes with a target range of 800 kilometers (500 miles).
Question: What is the main goal of the partnership between Elysian and TrueNoord?
Answer: The primary goal is to establish the commercial and financial viability of the E9X aircraft. TrueNoord, a regional aircraft lessor, is providing its expertise to define key metrics like operating costs, residual value, and leasing models to ensure the aircraft is a financially attractive option for airlines.
Question: What is the biggest technological challenge facing the E9X?
Answer: The main challenge is battery technology. The aircraft’s design requires a battery energy density of 360 Wh/kg, which is significantly higher than the ~250 Wh/kg offered by current commercially available batteries. The project’s success depends on future advancements in battery technology.
Sources
Photo Credit: TrueNoord
Electric Aircraft
AIR selects Dynon Avionics for exclusive eVTOL avionics integration
AIR partners with Dynon Avionics to customize SkyView HDX for its eVTOL aircraft, targeting FAA certification in 2026.
This article is based on an official press release from AIR via PR Newswire.
On June 3, 2026, Israeli electric vertical takeoff and landing (eVTOL) manufacturer AIR announced a strategic partnership with U.S.-based Dynon Avionics. According to the company’s official press release, Dynon will serve as the exclusive avionics provider across AIR’s entire smart aircraft portfolio.
This collaboration bridges the gap between traditional general aviation and the emerging Advanced Air Mobility (AAM) sector. By adapting Dynon’s widely utilized SkyView HDX flight display system for electric powered-lift operations, AIR aims to streamline the piloting experience for its upcoming vehicles while relying on proven aerospace technology.
The integration agreement covers both the piloted AIR ONE, a two-seat personal eVTOL designed for private ownership, and the uncrewed AIR ONE Cargo, a heavy-lift unmanned aerial system (UAS) utilized by defense and logistics organizations.
Adapting Proven Avionics for Electric Flight
Rather than developing a proprietary flight display from scratch, AIR has opted to customize Dynon’s flagship SkyView HDX avionics platform specifically for its eVTOL architecture. Originally introduced in 2016 for experimental and light sport airplanes, the SkyView HDX system features touchscreens that combine a primary flight display, moving-map navigation, synthetic vision, autopilot, and ADS-B traffic and weather data.
Customizing for eVTOL Operations
Because the AIR ONE utilizes electric propulsion rather than a traditional piston engine, Dynon’s engineering team adapted the SkyView HDX to meet the unique demands of powered-lift flight. According to the release, the customized system tracks electric propulsion metrics and battery energy management, ensuring pilots have clear, intuitive access to critical flight data.
“SkyView HDX is built to adapt to evolving aircraft architectures. Partnering with AIR allows us to take the proven reliability of SkyView HDX, which pilots rely on daily, and extend it directly into the advanced air mobility space.”
AIR’s Path to Commercialization and Manufacturing
AIR is positioning itself uniquely within the AAM market by focusing on personal and cargo air mobility rather than commercial air taxi services. The company’s flagship product, the AIR ONE, is designed as a “flying sports car” for private owners. According to company specifications, the aircraft features a target range of 100 miles, cruise speeds up to 155 mph, and a payload capacity of 550 pounds.
Production and Financial Traction
The avionics partnership comes at a time of significant growth for the Israeli manufacturer. As of March 2026, AIR reported surpassing $1 billion in its order backlog. This figure represents over 3,300 waitlisted customers, including 3,290 reservations specifically for the AIR ONE personal eVTOL. Furthermore, the company stated it has already generated over $35 million in booked revenue, primarily driven by deliveries of its heavy-lift UAS variants.
To support this backlog, AIR transitioned to commercial-scale serial manufacturing in July 2025 by opening a 32,000-square-foot production facility in Pardes Hanna, Israel. The company notes that this facility is capable of assembling up to six aircraft simultaneously.
“From the start, AIR has focused on making advanced flight systems intuitive, safe, and accessible. Working with Dynon allows us to bring proven avionics capability into a fundamentally new aircraft environment that demands more than a standard integration, while keeping the simplicity and operational clarity that define how we think about flight.”
Regulatory Tailwinds: The FAA MOSAIC Rule
The timing of this avionics integration aligns closely with a major regulatory shift in the United States. The Federal Aviation Administration’s (FAA) Modernization of Special Airworthiness Certification (MOSAIC) rule, finalized in July 2025, fundamentally changes how personal aircraft are certified.
Certification Timeline
Previously, Light Sport Aircraft (LSA) regulations excluded powered-lift aircraft and enforced strict weight limits. The MOSAIC rule removes these prescriptive weight limits in favor of performance-based metrics, officially allowing powered-lift aircraft like eVTOLs to be certified in the LSA category. While pilot privileges under MOSAIC took effect in October 2025, the new aircraft certification provisions for manufacturers take effect on July 24, 2026. AIR expects the FAA to approve the AIR ONE under these new rules this year, enabling the company to begin fulfilling its U.S. backlog.
AirPro News analysis
We view this partnership as a prime example of traditional general aviation technology successfully pivoting to support the booming AAM sector. It demonstrates that eVTOL manufacturers do not necessarily need to reinvent the wheel regarding cockpit displays; they can adapt proven, trusted systems to save on development costs and certification hurdles. Furthermore, by integrating a familiar system like Dynon’s SkyView HDX, AIR is strategically lowering the barrier to entry for existing private pilots transitioning to electric aircraft. Finalizing its supply chain and technology stack just ahead of the July 2026 MOSAIC implementation positions AIR favorably to capitalize on the emerging personal eVTOL market.
Frequently Asked Questions (FAQ)
- What is the AIR ONE?
The AIR ONE is a two-seat personal electric vertical takeoff and landing (eVTOL) aircraft designed for private ownership. It features a target range of 100 miles and cruise speeds up to 155 mph. - Why did AIR partner with Dynon Avionics?
AIR selected Dynon to adapt its proven SkyView HDX flight display system for electric powered-lift operations, providing pilots with a familiar, reliable, and intuitive interface for tracking electric propulsion and battery management. - When will the AIR ONE be available in the U.S.?
AIR expects to receive FAA approval for the AIR ONE this year under the new MOSAIC regulations, which take effect for manufacturers on July 24, 2026. This certification will allow the company to begin fulfilling its U.S. order backlog.
Sources: AIR via PR Newswire
Photo Credit: AIR
Technology & Innovation
GE Aerospace Completes Ground Test of Hybrid Electric Engine System
GE Aerospace successfully tested a megawatt-class hybrid electric engine system, advancing NASA’s electrified aircraft goals with upcoming flight demonstrations.
This article is based on an official press release from GE Aerospace.
On June 2, 2026, GE Aerospace announced the successful completion of the first ground test for a fully integrated, megawatt-class hybrid electric aviation engine system. Conducted at the company’s Peebles Test Operation facility in Ohio, the test marks a critical step forward under NASA’s Electrified Powertrain Flight Demonstration (EPFD) project.
According to the company’s press release, the ground test validated the seamless integration of electric propulsion components with a conventional gas turbine engine. By successfully simulating various flight phases, this achievement paves the way for upcoming flight tests and represents a vital milestone toward the aviation industry’s broader goal of improving fuel efficiency and reducing carbon emissions for next-generation commercial aircraft.
Validating an Integrated Hybrid Powertrain
Collaborative Component Integration
The recent ground test was the first to validate a fully integrated hybrid electric powertrain, combining a traditional gas turbine with an electric powertrain to optimize power management. Engineers at the Peebles Test Operation simulated multiple phases of a standard commercial flight, including taxi, takeoff, climb, and cruise.
During the simulation, the electric powertrain successfully powered the propeller and generated electricity that was directed back to the onboard batteries. The company noted that the test utilized flightworthy components meeting strict safety and reliability requirements, moving the technology beyond typical laboratory test hardware.
The system’s development relied on a consortium of aerospace manufacturers. GE Aerospace developed the motor/generators, power converters, inverters, controllers, and the core CT7 gas turbine engine. Additional critical components were supplied by industry partners: Dowty provided the propellers, Avio Aero supplied the gearboxes, BAE Systems delivered the onboard batteries, and Aurora Flight Sciences, a Boeing subsidiary, supplied the complete nacelle.
“The ground test is a major turning point in our understanding of hybrid electric powertrains for aviation and a fundamental building block for the future.”
A Decade of Electrified Flight Milestones
Progress Under NASA’s EPFD Project
GE Aerospace was awarded the NASA EPFD contract in 2021, an initiative designed to accelerate the development and flight readiness of electrified aircraft technologies. However, the company’s press release highlights that this recent test follows more than ten years of component testing.
Previous milestones include a 2016 electric motor-driven propeller ground test and a 2022 test of a megawatt-class hybrid electric propulsion system in simulated altitude conditions up to 45,000 feet at the NASA Electric Aircraft Testbed (NEAT) facility. More recently, in 2025, GE Aerospace successfully ground-tested a narrowbody hybrid electric configuration using a modified Passport engine under NASA’s HyTEC project, demonstrating power transfer without the need for battery energy storage.
“Step by step, we’re proving hybrid electric engine technology for next-generation commercial aircraft.”
Moving Toward Flight Demonstrations
The Saab 340B Testbed and Future Applications
With ground testing complete, GE Aerospace is preparing for actual flight demonstrations. According to the company, these upcoming tests will be conducted in collaboration with Boeing and Aurora Flight Sciences using a modified Saab 340B testbed aircraft powered by the hybrid CT7 engines.
The technologies matured through these NASA-backed projects are also being leveraged for the CFM International RISE (Revolutionary Innovation for Sustainable Engines) program. The RISE program is currently developing next-generation architectures, such as the “Open Fan” design, aimed at drastically reducing fuel burn. Furthermore, GE Aerospace emphasized that these hybrid electric systems are highly compatible with alternative fuel types, including SAF.
AirPro News analysis
We observe that the aviation industry is currently navigating intense regulatory and economic pressures to decarbonize, with a universal target to reach net-zero carbon emissions by 2050. Hybrid-electric propulsion is widely considered a vital transitional technology, particularly for single-aisle commercial aircraft, which constitute the vast majority of the global fleet.
While widespread commercial deployment of hybrid-electric passenger planes remains years away, likely targeting the 2030s and beyond, successful integrated testing of flightworthy hardware is a necessary prerequisite. This milestone strengthens GE Aerospace’s competitive position among airlines and airframe manufacturers who are actively seeking greener, more efficient propulsion solutions for their future fleets.
Frequently Asked Questions
What is the NASA EPFD project?
The Electrified Powertrain Flight Demonstration (EPFD) project is a NASA initiative aimed at accelerating the development, integration, and flight readiness of megawatt-class electrified aircraft technologies to support the decarbonization of aviation.
What aircraft will be used for the upcoming flight tests?
GE Aerospace, in partnership with Boeing and Aurora Flight Sciences, will utilize a modified Saab 340B testbed aircraft powered by hybrid CT7 engines for the upcoming flight demonstrations.
Can hybrid electric engines use Sustainable Aviation Fuel (SAF)?
Yes. According to GE Aerospace, hybrid electric systems are highly compatible with different fuel types, including Sustainable Aviation Fuel, allowing for compounded reductions in carbon emissions.
Sources: GE Aerospace
Photo Credit: GE Aerospace
Technology & Innovation
FPT and SATS Partner to Advance AI in APAC Aviation Logistics
FPT and SATS announce a partnership to integrate AI and digital innovation in aviation logistics across Singapore and Vietnam, enhancing efficiency and resilience.
This article is based on an official press release from FPT and SATS.
On June 2, 2026, global technology corporation FPT and aviation logistics leader SATS Ltd announced a Memorandum of Understanding (MOU) to integrate artificial intelligence (AI) and digital innovation into aviation logistics across the Asia-Pacific (APAC) region. According to the official press release, the strategic partnership will specifically focus on operations in Singapore and Vietnam.
The agreement aims to merge FPT’s technological capabilities with SATS’s extensive operational footprint. The companies intend to modernize logistics services, optimize operational efficiency, enhance supply chain resilience, and elevate the passenger experience in an increasingly complex global market.
Highlighting the bilateral economic significance of the deal, the press release notes that the MOU exchange ceremony took place in Singapore during the official state visit of H.E. To Lam, General Secretary of the Communist Party of Viet Nam and State President.
The Strategic Players: FPT and SATS
FPT’s Technological Backbone
Founded in 1988, FPT operates as Vietnam’s largest information technology service company. The company’s subsidiary, FPT Software, employs over 30,000 people globally and specializes in AI, cloud computing, and digital transformation. Through this partnership, FPT brings the technical infrastructure and expertise required to deploy AI solutions at scale within complex logistical environments.
SATS’s Global Logistics Footprint
SATS Ltd, headquartered in Singapore, is a dominant force in gateway services and food solutions, controlling approximately 80 percent of the ground handling and catering business at Singapore’s Changi Airport. The company’s operational scale expanded significantly following its €1.3 billion Acquisitions of Worldwide Flight Services (WFS) in 2023.
According to the provided industry data, the combined SATS entity now operates in over 200 locations across 23 countries. These trade routes are responsible for more than 50 percent of global air cargo volume, providing a massive real-world testing ground for new AI deployments and digital orchestration tools.
Targeting AI-Driven Efficiency in APAC
Moving Beyond the AI Hype
The integration of AI in aviation logistics is transitioning from experimental concepts to essential operational tools. The partnership focuses on practical applications such as predictive analytics, route optimization, and dynamic inventory management to build supply chain resilience and reduce operating costs.
“AI application has moved beyond the hype to drive real measurable gains in efficiency, cost savings, and service quality. FPT is committed to being a trusted partner in delivering AI transformation at scale for logistics and aviation sectors, ensuring that Singapore and Vietnam remain at the forefront of global supply chain excellence.”
AirPro News analysis
We observe that this Partnerships represents a classic synergy between a legacy operational giant and a technology powerhouse. As the APAC logistics sector experiences rapid growth, physical supply chains are becoming increasingly reliant on digital infrastructure. By aligning SATS’s vast Cargo-Aircraft network with FPT’s AI capabilities, the two companies are positioning themselves to address recent global Supply-Chain disruptions through real-time anomaly detection and automated orchestration. Furthermore, the diplomatic backdrop of the MOU signing underscores the growing strategic alignment between Singapore and Vietnam in the technology and logistics sectors.
Frequently Asked Questions
What is the main goal of the FPT and SATS partnership?
The partnership aims to integrate AI and digital innovation into aviation logistics across the APAC region, focusing on modernizing services, reducing costs, and enhancing supply chain resilience.
When was the MOU signed?
The MOU was officially announced on June 2, 2026.
How large is SATS’s global footprint?
Following its 2023 acquisition of WFS, SATS operates in over 200 locations across 23 countries, covering routes that handle more than 50 percent of global air cargo volume.
Sources
Photo Credit: FPT
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