Technology & Innovation
NOEMI Aerospace Expands Amphibious Seaplane Program with Multi-Mission Strategy
NOEMI Aerospace broadens its amphibious seaplane program to include multi-mission roles and propulsion options, targeting first flight in 2027.

This article is based on an official press release from NOEMI Aerospace.
NOEMI Aerospace Pivots to Multi-Mission, Multi-Propulsion Strategy for Amphibious Seaplane
Norwegian aviation startups NOEMI Aerospace has announced a significant strategic expansion of its aircraft development program. Originally focused exclusively on delivering a fully electric, nine-passenger amphibious seaplane, the company is now transitioning to a multi-mission, multi-propulsion platform strategy. According to a company press release issued this week, this pivot is designed to maximize the utility of its clean-sheet airframe across various commercial, government, and military sectors.
The company, which rebranded from Elfly Group to NOEMI Aerospace (“No Emissions”) in February 2026 to better target international markets, is positioning its flagship “Noemi” aircraft as a versatile replacement for aging legacy fleets like the de Havilland Twin Otter. By leveraging its proprietary aerodynamics, hydrodynamics, and composite structures, NOEMI intends to create a shared architecture capable of supporting multiple derivatives.
With its Preliminary Design Review (PDR) successfully completed in March 2026, NOEMI Aerospace has officially commenced construction on its first full-scale experimental prototype, designated the TAC-1. The company is currently targeting a first flight in late 2027, with commercial entry into service projected for 2030.
Expanding the Vision: The Multi-Mission Platform
Versatile Mission Profiles
While passenger transport remains a core focus, the official press release outlines several new mission variants designed to utilize the aircraft’s unique amphibious capabilities. NOEMI is developing an aerial firefighting variant capable of scooping water directly from lakes or coastal waters, with a payload capacity of approximately 2,700 kilograms of fire retardant.
Additionally, the company is proposing a specialized land-based skydiving configuration. This variant is designed to carry 17 to 20 jumpers to an altitude of 15,000 feet and features a rapid 10-minute fast-charge turnaround time. Other proposed applications include cargo and logistics, utilizing large side doors built to typical light cargo standards, as well as military and government dual-use roles such as troop transport, medical evacuation, and maritime reconnaissance.
Propulsion Roadmap
To support these diverse mission profiles, NOEMI Aerospace is broadening its propulsion strategy. The core business case remains an all-electric configuration, which utilizes a 1-megawatt combined output from two electric motors to deliver a range of approximately 170 kilometers. However, the company is now evaluating alternative powerplants for missions requiring greater endurance.
According to the release, a hybrid-electric configuration could extend the aircraft’s range to approximately 600 kilometers. Furthermore, a conventional fuel variant is being considered for specialized long-endurance missions, potentially allowing the aircraft to carry 7 to 14 passengers up to 2,000 kilometers.
“NOEMI was always designed as more than a single aircraft. We are building a platform that can evolve over time and address multiple markets while leveraging shared technology, engineering and certification pathways,” stated Eric Lithun, Founder and CEO of NOEMI Aerospace, in the press release.
Technical Progress and Regulatory Pathway
TAC-1 Prototype Construction
Manufacturing and R&D are actively underway at NOEMI’s facilities at Torp Airport in Sandefjord, Norway. The company reports that wing tooling for the TAC-1 prototype has begun, and a ground test rig is expected to run a propeller by the end of the third quarter of 2026. The prototype will integrate commercial off-the-shelf (COTS) automotive motors, inverters, and battery hardware with an in-house designed gearbox.
“By designing and then certifying Noemi, we don’t just create a single aircraft, we create a platform that we can then develop… Seaplanes typically operate on short missions, around an hour, rather than the three-hour legs common in general aviation. Today’s battery technology supports seaplane operations very well,” noted Simon Bendrey, Chief Engineer at NOEMI Aerospace.
EASA Certification Strategy
On the regulatory front, NOEMI is operating under a Pre-Application Contract (PAC) signed with the European Union Aviation Safety Agency (EASA) in June 2025. The company is initially pursuing EASA CS-23 Level 3 certification, which covers aircraft carrying up to nine passengers. Because the airframe is already structurally sized for higher weights, NOEMI plans to seek Level 4 certification (up to 19 passengers) two to three years after securing its initial type certificate.
Financials and Market Position
Developing a clean-sheet amphibious aircraft requires substantial capital. NOEMI estimates the total program cost at $150 million USD, with approximately $80 million required to reach type certification. To date, the company has raised roughly $20 million, which includes about $10 million in backing from the Norwegian government. NOEMI is currently engaged in a Series A funding round to secure additional capital.
Market demand appears robust, with the company reporting approximately 70 non-binding expressions of interest (MoUs) valued at an estimated $500 million. Prospective clients highlighted in the release include US-based UrbanLink, Nordic Seaplanes, Loch Lomond Seaplanes, and Vet Airways.
AirPro News analysis
NOEMI Aerospace’s strategic pivot reflects a growing pragmatism within the advanced air mobility and electric aviation sectors. We observe that certifying a single-use, purely electric aircraft carries significant financial and operational risk, especially given current battery density limitations. By transitioning to a “platform” model that accommodates hybrid and conventional propulsion, NOEMI is effectively hedging its bets.
This approach allows the company to tap into lucrative defense and specialized commercial markets, such as aerial firefighting and maritime patrol, that require ranges far beyond the 170-kilometer limit of current all-electric technology. Furthermore, industry data cited in the research notes indicates the amphibious aircraft market, valued at roughly $248 million in 2025, is projected to grow at an 11.8% CAGR through 2031. By offering a versatile “Swiss Army Knife” airframe, NOEMI is positioning itself to capture a larger share of this expanding niche while waiting for battery technology to mature sufficiently for long-haul operations.
Frequently Asked Questions
What is NOEMI Aerospace?
NOEMI Aerospace (formerly Elfly Group) is a Norwegian aviation startup developing a next-generation amphibious seaplane designed for multiple missions and propulsion types.
When will the NOEMI aircraft fly?
The company is targeting a first flight for its TAC-1 prototype in late 2027, with commercial entry into service planned for 2030.
What is the range of the all-electric NOEMI seaplane?
The core all-electric variant is designed to have a range of approximately 170 kilometers. Hybrid and conventional fuel variants are planned to offer ranges of 600 kilometers and up to 2,000 kilometers, respectively.
How much funding has NOEMI raised?
As of May 2026, the company has raised approximately $20 million USD, including government backing, and is currently in a Series A funding round to reach its $80 million certification goal.
Photo Credit: NOEMI Aerospace
Technology & Innovation
Vertical Aerospace Selects Hyundai WIA for Valo eVTOL Landing Gear
Vertical Aerospace partners with Hyundai WIA for landing gear on its Valo eVTOL, advancing certification and production with key suppliers onboard.

This article is based on an official press release from Vertical Aerospace.
United Kingdom-based electric aviation developer Vertical Aerospace (NYSE: EVTL) has officially selected South Korean manufacturing giant Hyundai WIA as the exclusive landing gear partner for its flagship electric vertical take-off and landing (eVTOL) aircraft, the “Valo.” According to a company press release issued on May 21, 2026, the long-term partnerships tasks the Hyundai Corporation subsidiary with the end-to-end design, development, and manufacture of a bespoke, lightweight landing gear system.
This agreement represents a critical step in finalizing Vertical Aerospace’s supply chain as the company prepares for its upcoming Critical Design Review (CDR) and eventual commercial production. By securing a partner with decades of advanced manufacturing experience, Vertical aims to lock in key design elements ahead of full-scale certification testing.
The official announcement also noted that United Kingdom-based engineering firm Stirling Dynamics will act as a key design partner in the endeavor. Bringing over 30 years of experience in certified aircraft programs, Stirling Dynamics will support Hyundai WIA in delivering a technically mature solution tailored to the Advanced Air Mobility (AAM) sector.
Finalizing the Valo Supply Chain
With the addition of Hyundai WIA, Vertical Aerospace has now secured top-tier suppliers across all major aircraft systems. According to the company’s press release, this comprehensive network illustrates the growing maturity of the Valo’s industrial foundation.
The complete supplier ecosystem for the Valo now includes several prominent aerospace and manufacturing firms. Honeywell is tasked with flight control and aircraft management systems, while Aciturri is providing airframe structures. Evolito is supplying the electric propulsion units, Syensqo is handling composite materials, and Isoclima is responsible for the aircraft’s transparencies, including windows and glass.
“As we advance toward certification and industrialization, securing world-class suppliers remains central to our strategy. Hyundai WIA brings deep expertise in advanced manufacturing and high-integrity systems, further strengthening the industrial foundation supporting Valo’s path to commercial service.”
Technical Milestones and Aircraft Background
The Valo eVTOL
Vertical Aerospace is developing the Valo as a piloted, four-passenger eVTOL aircraft designed to operate with zero operating emissions. According to the company’s official materials, Vertical is also developing a hybrid-electric variant of the aircraft to offer increased range and mission flexibility for operators. The company currently holds approximately 1,500 pre-orders for the Valo from major global aviation clients, including American Airlines, Avolon, Bristow, GOL, and Japan Airlines.
Path to Certification
This partnership announcement closely follows a major technical milestone for Vertical Aerospace. The company recently completed a successful two-way piloted transition flight, which validates the aircraft’s core operating mode and technology. The company is now moving toward its Critical Design Review, a vital engineering phase that will establish the certifiable design baseline required to build and test certification-conforming aircraft.
“We are proud to partner with Vertical Aerospace on the Valo programme and support the development of next-generation electric aviation. We look forward to working closely with Vertical and Stirling Dynamics to deliver a robust, innovative landing gear solution that meets the highest safety standards and performance.”
Financial Landscape and Market Position
AirPro News analysis
While the technical milestones and supply chain developments are promising, we note that Vertical Aerospace, like many eVTOL startups, is navigating a highly capital-intensive certification process. Market data from Investing.com as of May 2026 indicates that the company’s stock has faced significant headwinds, trading down approximately 55% year-to-date with a market capitalization of around $303 million, largely due to the high cash burn rates associated with aerospace research and development.
However, the company has taken substantial steps to secure its financial future. According to April 2026 reporting by Stock Titan and Business Wire, Vertical successfully executed and closed a comprehensive financing package worth up to $850 million. This capital injection significantly enhances the company’s liquidity, extending its cash runway to support these final, critical stages of certification and industrialization alongside partners like Hyundai WIA.
Frequently Asked Questions (FAQ)
What is the Vertical Aerospace Valo?
The Valo is a piloted, four-passenger electric vertical take-off and landing (eVTOL) aircraft designed for zero operating emissions. A hybrid-electric variant is also currently in development to provide extended range.
Who is manufacturing the landing gear for the Valo?
Hyundai WIA, a subsidiary of Hyundai Corporation, has been selected as the exclusive partner to design and manufacture the landing gear. They are supported by UK-based engineering firm Stirling Dynamics.
What is a Critical Design Review (CDR)?
A Critical Design Review is a multi-disciplined technical review to ensure that a system can proceed into fabrication, demonstration, and test, establishing the certifiable design baseline for the aircraft.
Photo Credit: Vertical Aerospace
Technology & Innovation
Synerjet Orders 10 Electric Viceroy Seagliders for Latin America
Synerjet Corp orders 10 all-electric Viceroy Seagliders from REGENT Craft to enhance zero-emission coastal travel in Latin America starting 2029.

At the 5th edition of the Catarina Aviation Show in São Paulo this week, the future of Latin American coastal mobility is taking center stage. According to an official company statement from REGENT Craft, Brazilian aviation services company Synerjet Corp is showcasing its commitment to zero-emission maritime transit following a landmark order for 10 all-electric Viceroy Seagliders.
The agreement, which industry research notes was officially formed on February 4, 2026, positions Latin America as a primary market for wing-in-ground-effect (WIG) vessels. With over 32,000 kilometers of coastline and heavily congested coastal highways, the region presents a compelling use case for alternative transit solutions. Deliveries of the 12-passenger vessels to Synerjet are slated to begin in 2029.
We are seeing a distinct shift in how regional operators view coastal logistics. By bypassing traditional airport infrastructure in favor of direct shoreline boarding, the Seaglider aims to capture a significant share of the estimated two million passengers traveling along accessible Latin American routes annually.
Transforming Latin American Coastal Travel
Slashing Regional Travel Times
REGENT Craft’s announcement highlights dramatic reductions in travel times for notoriously congested Brazilian routes. By utilizing coastal waterways instead of gridlocked highways, the Seaglider offers a high-speed alternative for both commuters and tourists.
According to the company’s route projections, the journey from Florianópolis to Bombinhas, which typically takes two hours by car, will be reduced to just 20 minutes by Seaglider. Similarly, the trip from Rio de Janeiro to Búzios will be cut from three hours to a mere 45 minutes. Industry data also points to potential future routes, including a 20-minute transit from Santos to Ilhabela, as well as international connections like Buenos Aires to Montevideo.
The Technology Behind the Viceroy
The Viceroy Seaglider is a 100% battery-electric vessel that operates exclusively over water. According to technical specifications provided in industry research, the craft measures 57.5 feet in length with a 65-foot wingspan. It is designed to carry 12 passengers and two crew members, or up to 3,500 pounds of cargo.
The vessel operates in three distinct modes to ensure safety and efficiency:
- Hull Mode: The craft floats on the water for safe, low-speed navigation near docks.
- Hydrofoil Mode: As it accelerates, it rises on underwater foils to skim smoothly over waves.
- Flight Mode: At higher speeds, it takes off to fly within a wingspan of the water’s surface (30 to 60 feet), utilizing aerodynamic “ground effect” to cruise at 160 knots (approximately 180 mph).
Currently, the Viceroy boasts a range of 160 nautical miles, with REGENT projecting an extension to 400 nautical miles as next-generation battery technology matures. Furthermore, the electric propulsion system produces zero direct emissions and operates 30 decibels quieter than traditional aircraft or helicopters.
Strategic Partnerships and Industry Impact
Leadership Perspectives
The partnership between REGENT and Synerjet, a well-known distributor for Pilatus fixed-wing aircraft and Leonardo helicopters, marks a significant diversification into sustainable maritime mobility for the Latin American operator.
“REGENT’s Seaglider represents a compelling new category of mobility. By combining aircraft-like speed with dock-to-dock convenience… [we can] unlock new regional routes,” stated Fabio Rebello, CEO of Synerjet, in a recent industry report.
REGENT’s leadership echoed this sentiment, emphasizing the alignment between the vessel’s capabilities and regional market demands.
“Synerjet understands the expectations of customers who value speed, reliability, and an elevated travel experience,” noted Billy Thalheimer, Co-founder and CEO of REGENT.
Regulatory and Cost Advantages
A critical factor in the Seaglider’s commercial viability is its regulatory classification. Legally, the Seaglider is classified as a maritime vessel rather than an airplane. Industry research indicates it will be certified under maritime rules by the U.S. Coast Guard and international bodies such as Lloyd’s Register and Bureau Veritas.
This classification yields substantial cost efficiencies. The vessel does not require traditional aircraft-pilot licensing, it can be operated by a trained mariner, uses no aviation fuel, and avoids costly airport fees. Consequently, operating costs are projected to be significantly lower than those of business jets or regional helicopters.
Recent Developments and Future Outlook
Testing and Manufacturing Scale-Up
REGENT is actively advancing its testing and production capabilities. In March 2026, the company resumed sea trials with its full-scale Viceroy prototype in Narragansett Bay, Rhode Island. The following month, they began flight-testing a smaller autonomous drone variant, dubbed “Squire,” to validate control systems. To meet a commercial order backlog that exceeds $10 billion globally, REGENT is preparing to open a 255,000-square-foot manufacturing facility in Rhode Island in the summer of 2026.
AirPro News analysis
The introduction of the Seaglider to the Latin American market is more than a novel technological deployment; it represents a structural shift in regional transit economics. We note that the recent formation of the Brazil Seaglider Initiative (BSI), a consortium of local government, private sector, and community stakeholders, signals strong localized support. By advocating for the adoption of seagliders to modernize maritime transport and eliminate greenhouse gas emissions, the BSI provides a crucial political and infrastructural runway for Synerjet’s 2029 delivery timeline. If the regulatory framework holds and battery technology scales as projected, coastal WIG vessels could rapidly cannibalize short-haul regional helicopter and automotive transit markets in coastal hubs.
Frequently Asked Questions (FAQ)
What is a Seaglider?
A Seaglider is a wing-in-ground-effect (WIG) vessel that operates exclusively over water. It floats on a hull at the dock, rides on hydrofoils at moderate speeds, and flies just above the water’s surface at high speeds (up to 180 mph) using aerodynamic ground effect.
When will the Seagliders be delivered to Brazil?
According to industry data, deliveries of the 10 Viceroy Seagliders ordered by Synerjet Corp are scheduled to begin in 2029.
Do Seagliders require airports?
No. Seagliders are classified as maritime vessels and operate dock-to-dock, completely bypassing traditional airport infrastructure and associated fees.
How many passengers can the Viceroy carry?
The REGENT Viceroy model is designed to carry 12 passengers and two crew members, or up to 3,500 pounds of cargo.
Sources:
Photo Credit: REGENT
Technology & Innovation
Eve Air Mobility Completes Hover and Low-Speed eVTOL Flight Tests
Eve Air Mobility finishes hover and low-speed flight tests for its eVTOL prototype, advancing toward transition flights in summer 2026.

This article is based on an official press release from Eve Air Mobility.
Eve Air Mobility (NYSE: EVEX), a global leader in advanced air mobility and a spin-off of Brazilian aerospace manufacturer Embraer, has successfully concluded the hover and low-speed flight test block for its full-scale electric vertical takeoff and landing (eVTOL) engineering prototype. The completion of this phase marks a critical milestone in the aircraft’s development, generating high-fidelity data that validates the company’s aerodynamic models and control laws.
According to the company’s press release, this testing phase was designed to expand the flight envelope step-by-step. By validating models and aircraft behavior against real-world data before advancing to more complex maneuvers, Eve is laying a disciplined technical foundation. The successful closeout of these low-speed tests clears the path for the highly anticipated transition flight testing phase, which is expected to commence in the summer of 2026.
Backed by Embraer’s 55 years of aviation certification expertise, Eve has adopted a methodical, building-block approach to its flight test campaign. This strategy aims to tighten the correlation between simulation predictions and actual flight behavior, ensuring safety and reliability as the program advances toward commercial certification and entry into service.
Flight Test Achievements and Performance Metrics
Pushing the Low-Speed Envelope
The recently completed test block yielded significant operational data. According to the official release and supplementary program data, the uncrewed prototype completed 59 flights, accumulating a total of 2 hours, 27 minutes, and 33 seconds of flight time. During these tests, the aircraft reached a maximum altitude of 215 feet above ground level (AGL) and achieved a maximum single-flight duration of 3 minutes and 48 seconds.
Testing initially focused on a low-speed input phase below 15 knots to validate control laws, downwash effects, thermal behavior, and the propulsion model. As the campaign progressed, operations expanded to approximately 20 knots of ground speed. During this expanded envelope, the engineering team successfully executed simultaneous four-axis maneuvers, which are crucial for validating aerodynamic and load models under dynamic conditions.
System Validations and Firsts
Beyond basic flight metrics, the test block included several notable technical demonstrations. Eve reported the successful execution of more than 100 specific flight test points. Crucially, the aircraft demonstrated its autoland capabilities and a “simplified fly-by-wire mode” for the first time. This simplified mode serves as a secondary, backup layer of the flight control system, designed to activate if the normal fly-by-wire mode becomes unavailable.
The company also noted that recorded noise levels remained in line with expectations, while both battery and propulsion performance exceeded initial projections.
“Completing hover and low‑speed testing gives us high‑confidence data to validate and refine our aerodynamic, propulsion and load models. That model correlation is what enables disciplined envelope expansion. With planned ground tests next, we will be ready to begin transition flights, in which we validate the lifter-pusher synchronization before moving on to the cruise phase.”
Marcelo Basile, Head of Tests at Eve Air Mobility
The Road to Transition Flights
Preparing for Summer 2026
With the hover and low-speed block complete, Eve’s engineering prototype will now undergo a series of planned ground tests. These tests are a prerequisite for the transition flights block, which the company expects to begin in July or August of 2026. The transition phase will focus on expanding the flight envelope further, specifically validating the synchronization between the vertical lifting rotors and the rear pusher propeller as the aircraft shifts to wing-borne forward flight.
“Closing this phase validates the discipline behind our flight test strategy. Across 59 flights, we confirmed stable hover performance and predictable control behavior within the envelope, while expanding our understanding of loads, aerodynamics, propulsion and energy management, key foundations for the transition phase and the certification path ahead with the conforming prototypes.”
Johann Bordais, CEO of Eve Air Mobility
Aircraft Design and Market Position
Lift + Cruise Configuration
Eve’s eVTOL utilizes a “Lift + Cruise” configuration. The design features eight dedicated fixed-pitch rotors for vertical lift and a rear pusher propeller for forward cruise flight, all supported by fixed wings. By eliminating complex tilting mechanisms, the company aims to prioritize safety, mechanical reliability, and a more straightforward certification path.
The 100% electric aircraft is designed to carry four passengers and one pilot at launch, with a targeted range of 100 km (60 miles). This range is optimized for high-frequency urban air mobility (UAM) routes. Future iterations of the aircraft are planned to accommodate up to six passengers once autonomous, uncrewed operations are certified.
Industry-Leading Backlog and Ecosystem
Eve Air Mobility benefits heavily from its relationship with Embraer, which remains the majority shareholder with an approximate 70% stake. This backing provides Eve with access to over 800 contracted engineers and a global service center network.
This robust corporate foundation has translated into significant market confidence. Eve currently holds the largest customer order backlog in the UAM industry, boasting letters of intent for approximately 2,800 aircraft, representing a potential $14 billion in revenue. Furthermore, the company is developing a comprehensive UAM ecosystem, including Eve Vector (urban air traffic management software) and Eve TechCare (aftermarket services).
AirPro News analysis
We observe that Eve Air Mobility is playing a strategic “tortoise and hare” game within the broader eVTOL sector. While competitors such as Joby Aviation and Archer Aviation have already pushed through to transition flights, Eve has deliberately adopted a more incremental, simulation-heavy approach. By leveraging Embraer’s deep institutional knowledge of aviation certification, Eve is prioritizing model correlation over rapid physical milestones.
The upcoming Summer 2026 transition phase represents the ultimate engineering hurdle. Transitioning from vertical rotor lift to wing-borne aerodynamic lift involves passing through a complex, low-speed “grey zone.” Successfully navigating this phase will be a massive de-risking event for the company and its investors. Despite being slightly behind some rivals in physical flight testing timelines, Eve’s methodical strategy, coupled with its industry-leading backlog of 2,800 aircraft, suggests that the market values certification certainty and manufacturing pedigree just as highly as early test flight footage.
Frequently Asked Questions (FAQ)
What is a transition flight in an eVTOL?
A transition flight occurs when an eVTOL aircraft shifts from vertical lift (using rotors like a helicopter) to forward, wing-borne flight (like a traditional airplane). It is considered one of the most complex aerodynamic phases of eVTOL testing.
When is Eve Air Mobility targeting entry into service?
Eve is currently targeting commercial entry into service around the 2026-2027 timeframe, working concurrently with aviation authorities in Brazil (ANAC), the United States (FAA), and Europe (EASA).
What is the range and capacity of Eve’s eVTOL?
The aircraft is 100% electric with a targeted range of 100 km (60 miles). At launch, it is designed to carry four passengers and one pilot.
Sources
Photo Credit: Eve Air Mobility
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