Electric Aircraft
AIR Opens Israel eVTOL Facility to Scale Urban Air Mobility
AIR’s new Israeli production plant boosts eVTOL output with automotive processes, 2,500 preorders, and plans for US expansion to meet growing air mobility demand.
AIR’s New Production Facility: Redefining eVTOL Manufacturing and Urban Air Mobility
The unveiling of AIR’s new 32,000-square-foot production facility in central Israel marks a pivotal shift in the electric vertical takeoff and landing (eVTOL) industry. As demand surges for both cargo eVTOL aircraft, AIR is positioning itself to scale operations, reduce delivery times, and meet the challenges of a rapidly evolving market. The facility, designed to support concurrent production of up to six aircraft, serves as a strategic bridge between prototype development and full-scale commercialization.
This milestone is not only a testament to AIR’s engineering prowess but also to the broader transformation occurring within urban mobility. With over 2,500 preorders for the AIR ONE and 15 cargo eVTOLs scheduled for delivery in 2025, AIR is emerging as a serious contender in a market projected to reach $39 billion by 2033. The facility’s modular design and in-house testing capabilities reinforce AIR’s commitment to quality, safety, and scalability, key pillars in the journey toward widespread eVTOL adoption.
Engineering the Future: Inside AIR’s New Production Facility
Purpose-Built for Scale and Efficiency
Located in central Israel, AIR’s new facility exemplifies a forward-thinking approach to eVTOL manufacturing. The 32,000-square-foot space is segmented into specialized zones for aircraft assembly, composite materials fabrication, engineering, and painting. This layout not only enhances workflow efficiency but also allows for the simultaneous assembly of six aircraft at various production stages, significantly reducing lead times.
One of the standout features of the facility is its integration of automotive-inspired processes. Tier-1 suppliers deliver pre-validated subsystems, such as high-torque electric motors from Nidec Corporation, which are then assembled using automotive-grade protocols. This approach ensures component interoperability and minimizes error rates, with final assembly defect rates reportedly as low as 0.2%.
In-house testing labs further bolster AIR’s quality assurance standards. These labs conduct structural and battery validation tests aligned with FAA Part 23 safety requirements, ensuring that each aircraft meets rigorous operational benchmarks before deployment to the flight line.
“This new site is integral to AIR’s focus on multi-domain eVTOL development,” said Chen Rosen, CTO and co-founder of AIR. “It was built with future growth in mind, offering ample space and the flexibility required for increased production capacity.”
Composite Materials and Modular Design
To achieve optimal performance and efficiency, AIR utilizes advanced composite materials fabricated on-site using resin-transfer molding techniques. These materials offer a 40% weight reduction compared to traditional aluminum alloys, directly enhancing aircraft range and payload capacity.
The facility’s modular design serves a dual purpose: it supports current production needs while acting as a blueprint for a larger, automated U.S.-based manufacturing site. This future facility will feature high-volume production lines capable of scaling annual output from the current 50–60 units to as many as 200 units with process optimizations.
VP of Operations Roi Peleg emphasized the importance of the facility’s layout in fostering collaboration. By streamlining feedback loops between engineering and production teams, AIR can rapidly iterate on designs, reducing time-to-market for new variants and upgrades.
Strategic Partnerships and Technological Synergies
AIR’s collaboration with German engineering firm EDAG Group highlights the convergence of automotive and aerospace technologies. EDAG designed the AIR ONE’s aluminum airframe, which features foldable wings and motor arms to facilitate compact storage and road transport, a key selling point for private owners.
These design efficiencies are complemented by shared tooling strategies; 70% of AIR’s assembly jigs are adapted from automotive production lines, reducing costs and accelerating production. EDAG’s CEO Harald Keller noted that these efficiencies are crucial for maintaining structural integrity while minimizing weight.
Additionally, AIR’s supply chain includes partners specializing in silicon-anode battery chemistry and multi-sourced carbon-fiber composites. These relationships not only ensure high-performance components but also mitigate risks associated with geopolitical disruptions and material shortages.
Market Dynamics and AIR’s Competitive Edge
Responding to Growing Demand
The global eVTOL market is experiencing rapid growth, with a projected compound annual growth rate (CAGR) of 54.9% through 2030. AIR has already secured over 2,500 preorders for its AIR ONE model, each priced around $350,000, representing approximately $875 million in potential revenue. Meanwhile, 15 cargo variants are scheduled for delivery in 2025 to industries such as offshore logistics and emergency medical services.
AIR’s dual-market strategy, targeting both personal and enterprise customers, allows it to diversify revenue streams. The cargo eVTOL, with its 70 cubic feet of storage, is particularly suited for time-sensitive deliveries like medical supplies. This flexibility positions AIR to adapt to shifting market demands and regulatory landscapes.
CEO Rani Plaut emphasized that the AIR ONE is designed for daily commuting, with 60% of preorder customers already holding private pilot licenses. This user base lowers training barriers and supports AIR’s goal of democratizing air mobility.
Regulatory Tailwinds and Certification Pathways
AIR is pursuing Light Sport Aircraft (LSA) certification under the FAA’s Modernization of Special Airworthiness Certificates (MOSAIC) framework, expected to be finalized by 2025. This regulatory pathway simplifies certification requirements and reduces insurance premiums by 20–30% compared to experimental categories.
The LSA classification is particularly advantageous for AIR, enabling quicker market entry and broader adoption. It also aligns with the company’s vision of making eVTOLs accessible to a wider audience, beyond just commercial operators and government agencies.
However, infrastructure challenges remain. As of 2025, only 12 vertiports are expected to be operational in the U.S., potentially limiting near-term deployment. Addressing these gaps will be essential to achieving the full potential of urban air mobility.
Global Positioning and Long-Term Outlook
Israel’s robust aerospace ecosystem provides a competitive advantage for AIR. With 12% of the country’s technical workforce employed in aerospace R&D, companies like AIR benefit from a talent pool and government support that accelerates innovation. Grants covering up to 30% of certification costs further enhance AIR’s ability to bring products to market swiftly.
Globally, sustainability mandates are pushing the aviation industry toward electric alternatives. AIR’s eVTOLs offer a 65% reduction in carbon emissions compared to helicopters, aligning with initiatives like the EU’s “Fit for 55” and airline decarbonization targets.
Still, technological constraints such as battery energy density must be addressed. AIR is actively working with solid-state battery developers to achieve 400 Wh/kg by 2027, which would significantly enhance payload capacity and range.
Conclusion
AIR’s new production facility in Israel represents a significant leap toward mainstreaming eVTOL technology. By combining automotive-grade manufacturing processes, strategic partnerships, and a scalable infrastructure, AIR is well-positioned to meet its ambitious delivery goals and expand its market footprint. The facility not only enables faster production but also ensures that safety and quality remain uncompromised.
Looking ahead, AIR’s success will depend on its ability to scale operations, navigate regulatory landscapes, and continue innovating in battery and materials technology. With plans for a larger U.S.-based facility and a growing order book, AIR is poised to play a central role in the future of urban air mobility, one that is cleaner, faster, and more accessible than ever before.
FAQ
What is the purpose of AIR’s new production facility?
The facility is designed to accelerate production of AIR’s eVTOL aircraft, support scalability, and serve as a model for a larger U.S.-based plant.
How many aircraft can AIR produce annually at the new site?
The current capacity supports 50–60 units per year, scalable to 200 with process optimizations.
What types of eVTOLs does AIR manufacture?
AIR produces both a two-seater piloted eVTOL (AIR ONE) and an uncrewed cargo variant for enterprise use.
When is the AIR ONE expected to be certified?
AIR is targeting Light Sport Aircraft (LSA) certification under the FAA’s MOSAIC framework by 2025.
What are the environmental benefits of AIR’s aircraft?
AIR’s eVTOLs offer a 65% reduction in carbon emissions compared to traditional helicopters, supporting global sustainability goals.
Sources: AIR Press Release, AIR ONE Announcement
Photo Credit: AIR
Electric Aircraft
NOEMI Aerospace Selects Syensqo Composites for TAC-1 Wing
NOEMI Aerospace picks Syensqo MTM 45-1 and AeroPaste for its 21-meter all-electric amphibious aircraft wing structure.
NOEMI Aerospace has selected advanced materials manufacturer Syensqo to supply carbon fiber composites and structural adhesives for its nine-passenger all-electric amphibious aircraft.
The agreement, announced in a September 10, 2026, press release, secures out-of-autoclave materials critical for fabricating the aircraft’s 21-meter single-span wing structure. The selected materials feature existing National Center for Advanced Materials Performance (NCAMP) data, which NOEMI intends to leverage for its Federal Aviation Administration (FAA) certification program.
Composite materials for single-span wing construction
Syensqo will provide its MTM® 45-1 carbon fiber prepreg and AeroPaste® structural paste adhesive for the airframe and wing assembly. NOEMI Aerospace requires out-of-autoclave curing capabilities to accommodate the physical dimensions of the aircraft’s wing skins and spars, which the company plans to manufacture as a continuous 21-meter structure.
Simon Bendrey, Chief Engineer at NOEMI Aerospace, stated that the company needed a primary structure-capable material with proven performance to support this manufacturing approach.
“With Syensqo’s MTM® 45-1, a primary structure capable material with FAA approval and independently verified NCAMP data, we have a solution that will support our certification approach while helping us achieve the low structural weight required for our first prototype aircraft,” Bendrey said.
Bendrey added that the company will utilize the AeroPaste® structural adhesive to bond the wing components. Gerald Perrin, EMEA Sales Director for Syensqo Composite Materials, noted that the selection reflects the aerospace heritage of the company’s product line and its alignment with Electric-Aviation development.
TAC-1 prototype and multi-mission development
The materials partnership advances the construction of NOEMI’s TAC-1 experimental prototype. Following a preliminary design review completed in March 2026, the Norwegian Manufacturers is currently building a ground test rig. According to reporting by Aviation International News, the company expects to run a propeller on the test rig by the end of the third quarter of 2026.
The all-electric seaplane is designed for a range of approximately 200 kilometers, targeting short-haul routes between coastal islands and waterway-connected communities. While initially focused on passenger transport, NOEMI Aerospace, which rebranded from Elfly Group in February 2026, announced a multi-mission Strategy on May 19, 2026. The company plans to adapt the airframe for specialized operations, including aerial firefighting, medical evacuation, troop transport, and skydiving.
AirPro News analysis
We view NOEMI’s selection of an out-of-autoclave composite system with existing NCAMP data as a pragmatic risk-reduction strategy. Electric aircraft developers face strict weight limitations due to current battery energy densities, making lightweight composite structures mandatory rather than optional. By choosing a material that already possesses verified performance data and FAA familiarity, NOEMI can avoid the time and expense of a clean-sheet material qualification program. The ability to cure a 21-meter wing structure outside of a traditional autoclave removes a significant Manufacturing bottleneck and reduces capital equipment costs for early-stage prototype production.
Sources: NOEMI Aerospace
Photo Credit: NOEMI Aerospace
Electric Aircraft
Project SEAN Wins £1.52M for Electric Aviation in Scotland
Bristow-led consortium secures UK DfT funding for a 2027 electric aircraft demonstration across Scotland’s Highlands and Islands.
A consortium led by Bristow Helicopters Limited has secured £1.52 million in UK government funding to conduct a three-month electric aviation demonstration program across Scotland’s Highlands and Islands beginning in 2027.
Announced in a press release on July 23, 2026, the initiative is designated Project SEAN (Scottish Electric Aviation Network). The project aims to evaluate the operational viability of electric aviation in remote regions and is backed by the UK Department for Transport (DfT) as part of its Zero emission flight demonstrator competition. The broader government initiative seeks to accelerate the commercial deployment of zero-emission aircraft from UK airports.
Consortium partners and aircraft selection
Project SEAN brings together multiple aviation and infrastructure entities to test the BETA Technologies ALIA CTOL (CX300), an all-electric conventional takeoff and landing aircraft. Alongside Bristow and BETA Technologies, the consortium includes Electric Aviation Maven Limited, Skyports Infrastructure Limited, Highlands and Islands Airports Limited (HIAL), and the Highlands and Islands Transport Partnership (HITRANS).
The demonstration flights will operate from a central hub at Inverness Airport (INV), connecting to regional destinations including Wick John O’Groats Airport (WIC). The three-month flight program is designed to generate operational data regarding aircraft performance, charging infrastructure requirements, and overall airport readiness.
Funding and operational objectives
The UK DfT awarded Project SEAN £1,522,896, supporting a total project cost of £2,125,155. The data collected during the 2027 flight program will inform evidence-based recommendations for integrating electric aircraft into passenger, cargo, and medical service routes.
“Project SEAN brings together organizations committed to exploring how electric aviation can support regional connectivity while reducing emissions across Scotland’s Highlands and Islands. With support from the Department for Transport, we can now move from planning to executing real-world demonstration flights and generating practical insights that will help inform the future of electric aviation in Scotland and beyond.”
Simon Meakins, the Project SEAN consortium lead for Bristow, stated that the group looks forward to working with local communities as the project advances toward its 2027 operational phase.
AirPro News analysis
The selection of Scotland’s Highlands and Islands for Project SEAN highlights the region’s utility as a proving ground for advanced air mobility and electric aviation. The local geography necessitates short, frequent flights to maintain connectivity between remote communities, perfectly matching the current range capabilities of early-generation electric aircraft like the BETA ALIA CTOL. By securing DfT funding, the Bristow-led consortium minimizes financial risk while gaining critical real-world data on charging infrastructure performance in harsh weather conditions. We expect the operational insights gathered at Inverness and Wick to serve as a baseline for broader UK electric aviation policy and infrastructure planning.
Sources: Bristow Group
Photo Credit: Bristow Group
Electric Aircraft
Sora Aviation Completes S-1 Subscale VTOL Flight Testing
Sora Aviation completed subscale VTOL flight testing for its 30-seat S-1 eVTOL in Wales, targeting a full-scale prototype flight in 2028.
This article summarizes reporting by eVTOL Insights by Jason Pritchard.
British electric aviation developer Sora Aviation announced on June 25, 2026, the successful completion of a subscale vertical take-off and landing (VTOL) flight testing program for its proposed 30-seat S-1 aircraft at the Snowdonia Aerospace Centre in Wales. The campaign generated critical flight data that will directly inform the design of the full-scale prototype, which is targeted to fly in 2028.
According to reporting by eVTOL Insights, the subscale demonstrator completed dozens of flights over several months. The testing allowed engineers to evaluate the aircraft’s stability, control, and flight characteristics during repeated VTOL operations in a lower-risk environment. This milestone is intended to de-risk the technology before the company begins construction on the full-scale prototype.
Subscale testing and validation strategy
Sora Aviation Chief Executive Officer Furqan Afzal emphasized the company’s comprehensive approach to development. As reported by eVTOL Insights, Afzal stated the manufacturers invested in a rigorous validation strategy that combines simulation, laboratory testing, wind tunnel campaigns, and representative flight demonstrators.
“This milestone demonstrates the maturity of our development approach and the strength of the engineering foundations underpinning the S-1 programme,” Afzal said.
The data gathered at the Welsh testing facility will be used to refine the S-1’s engineering foundations. Aerospace Global News reported that Afzal views the flight data as validation of the aircraft’s potential, noting that the results reinforce the company’s confidence that the S-1 can deliver the required performance, safety, and economics for advanced air mobility operations.
S-1 program timeline and commercial milestones
The S-1 is designed as a 30-seat electric vertical take-off and landing (eVTOL) aircraft. Aerospace Global News reported that the full-scale prototype is projected to make its first flight in 2028. The flight testing milestone follows earlier component validation efforts. On January 20, 2026, Sora Aviation began testing the S-1’s energy storage system at a bespoke battery performance laboratory at the IAAPS centre, in collaboration with the University of Bath.
The company has also secured early commercial interest and explored alternative applications for the airframe. In March 2025, South Korean charter operator Moviation signed a pre-order agreement for 20 S-1 aircraft, intending to deploy them on high-demand airport shuttle routes, according to Aviation International News. Aviation Week reported in May 2026 that Sora Aviation was studying a conceptual hybrid-electric variant of the 30-seat aircraft for potential use as a United Kingdom Navy helicopter.
AirPro News analysis
We view the completion of subscale flight testing as a standard but essential risk-reduction step for any novel eVTOL configuration. By validating aerodynamic models and flight control laws on a subscale airframe, Sora Aviation can identify and correct stability issues before committing to the high costs of full-scale prototype manufacturing. The 30-seat capacity of the S-1 places it in a larger size category than many competing eVTOL designs, which typically target four to six passengers. This larger payload requirement will place significant demands on the aircraft’s battery and thermal management systems, making the concurrent testing at the IAAPS centre critical to the program’s viability.
Sources: Sora Aviation
Photo Credit: Sora Aviation
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