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3M Partners with JetZero to Develop Fuel-Efficient Blended-Wing Airliner

3M invests in JetZero’s Z4 blended-wing body aircraft, targeting 50% fuel savings and a 2027 prototype flight for commercial service in the 2030s.

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This article is based on an official press release from 3M.

Global materials science company 3M has announced a strategic collaboration and investment in JetZero, an aerospace startup developing the world’s first commercial all-wing body commercial aircraft. The partnership aims to accelerate the development of JetZero’s Z4 blended-wing body airliner, a design that promises to drastically reduce fuel consumption and reshape the future of commercial aviation.

According to a press release from 3M, the company participated in JetZero’s Series B funding round. The collaboration will leverage 3M’s extensive expertise in aerospace materials to address the unique engineering and manufacturing challenges associated with the Z4’s unconventional airframe.

By moving away from the traditional “tube-and-wing” architecture that has dominated commercial aviation for decades, JetZero and 3M are positioning themselves at the forefront of the industry’s push toward greater efficiency and sustainability.

Breaking the Tube-and-Wing Mold

The commercial aviation industry has long relied on the standard cylindrical fuselage with attached wings. JetZero’s Z4 aircraft disrupts this paradigm by integrating the wing and fuselage into a single, continuous aerodynamic shape known as a blended-wing body (BWB).

According to the 3M press release, this integrated structure generates significant aerodynamic improvements. The Z4 is designed to deliver up to a 50% reduction in fuel consumption compared to current commercial airliners, while also offering a significantly improved passenger experience.

Industry estimates and secondary reporting indicate that the Z4 is being designed to accommodate up to 250 passengers with a range of approximately 5,000 nautical miles, positioning it as a potential replacement for aging mid-market aircraft. The blended-wing design not only reduces drag but also increases lift, making it a critical component in the aviation sector’s goal to achieve net-zero emissions by 2050.

Advanced Materials for Next-Generation Flight

Developing a radically new airframe requires innovative approaches to manufacturing and structural integrity. 3M’s involvement goes beyond financial investment, providing JetZero with critical material science solutions across the aircraft’s development lifecycle.

The official 3M release notes that the partnership will focus on integrating cutting-edge technologies into the Z4’s design. Specific areas of collaboration include lightning protection, structural assembly, and thermal acoustic solutions. These materials are essential for ensuring the safety, durability, and passenger comfort of the all-wing aircraft.

“3M looks forward to continued collaboration with our aerospace industry partners,” said Eric Forbes, vice president of aerospace and defense at 3M, in the company’s press release. “By combining JetZero’s visionary airframe with 3M’s deep expertise in materials science, we are leading the way to a more efficient, sustainable, and comfortable aircraft for the commercial aviation market.”

Furthermore, 3M stated that the technologies matured through this partnerships could also be adopted by existing commercialized aircraft, providing immediate efficiency gains for the broader aviation industry while the Z4 continues its development.

Series B Funding and Future Milestones

3M’s investment comes as part of JetZero’s broader Series B funding round. While the 3M release did not disclose the specific financial terms of its contribution, broader industry reporting confirms that JetZero recently secured approximately $175 million in Series B financing, bringing its total funding to over $1 billion.

This influx of capital, supported by 3M and other major aerospace players, is earmarked for the development of JetZero’s full-scale demonstrator prototype. The demonstrator is currently on track for its inaugural flight in 2027, a critical milestone that will validate the aerodynamic efficiency and manufacturing viability of the blended-wing design.

AirPro News analysis

We note that the strategic backing of an established materials giant like 3M is a significant vote of confidence for JetZero. While blended-wing body concepts have been studied by NASA and the military for decades, we recognize that transitioning the design to the commercial market introduces complex certification and manufacturing hurdles. 3M’s expertise in structural assembly and thermal acoustics directly addresses some of the most challenging aspects of building a pressurized, passenger-carrying all-wing aircraft. If the 2027 demonstrator flight is successful, the Z4 could realistically target commercial entry into service in the early 2030s, offering airlines a step-change in operating economics.

Frequently Asked Questions

What is a blended-wing body aircraft?

A blended-wing body (BWB) aircraft integrates the fuselage and wings into a single, continuous aerodynamic shape, eliminating the traditional cylindrical tube. This design significantly reduces aerodynamic drag and increases lift, leading to lower fuel consumption.

How much fuel does the JetZero Z4 save?

According to JetZero and 3M, the Z4 is designed to deliver up to a 50% reduction in fuel consumption compared to conventional tube-and-wing commercial aircraft.

When will the JetZero Z4 fly?

JetZero plans to fly a full-scale demonstrator prototype of the Z4 in 2027, with the goal of entering commercial service in the early 2030s.

What is 3M providing to JetZero?

3M is providing both financial investment (via JetZero’s Series B funding round) and material science expertise. This includes solutions for lightning protection, structural assembly, and thermal acoustics.

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Photo Credit: 3M

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Surf Air Mobility and BETA Technologies Launch Hawaii Electric Demo

Surf Air Mobility and BETA Technologies begin a 6-8 week ALIA CTOL demo in Hawaii targeting FAA Part 23 certification in early 2027.

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Surf Air Mobility Inc. and BETA Technologies have initiated a six-to-eight-week electric aircraft demonstration program in Hawaiʻi, partnering with Airlines to evaluate the operational and infrastructure demands of interisland electric flight.

Announced in a joint press release on June 26, 2026, the flight campaign utilizes the BETA ALIA Conventional Takeoff and Landing (CTOL) aircraft. The initiative aims to gather real-world data on battery performance, energy consumption, and charging logistics to pave the way for commercial regional air service across the state.

Demonstration parameters and industry partnerships

The program officially commenced with a launch event on June 25, 2026, hosted at the Charles I. Elliott Maintenance and Cargo Facility at Daniel K. Inouye International Airport (HNL) in Honolulu. Over the next two months, the ALIA CTOL aircraft will conduct test flights to simulate the high-cadence operations required for regional cargo and passenger transport.

Hawaiian Airlines (HA), a subsidiary of Alaska Air Group, is supporting the evaluation activities. The carrier is using the trial to assess how electrified aviation can integrate into existing short-haul networks.

Hawaiian Airlines has a deep and sustained responsibility not only to provide critical air service to, from and within the islands and to carry the spirit of Hawai’i with us on the journey, we are also driven, with Alaska Airlines, to cultivate innovation and support the technologies that will enable a strong and resilient future for aviation. This program provides an opportunity to better understand how BETA’s electrified aircraft can support safe and reliable cargo and passenger air service for short-haul service while improving the environmental impact of that flying.

The statement was provided by Hawaiian Airlines Chief Executive Officer Diana Birkett Rakow. BETA Technologies Chief Executive Officer Kyle Clark added that the demonstrations will showcase the utility and economics of the ALIA aircraft firsthand, noting that connecting the Hawaiian islands with low-cost cargo and passenger service represents an ideal application for advanced air mobility.

Path to commercial operations and Certification

The demonstration flights build on a definitive purchase agreement finalized in March 2026. Surf Air Mobility placed a firm order for 25 BETA ALIA CTOL aircraft and secured options for an additional 75 airframes. The company intends to deploy these aircraft through its Mokulele Airlines (MW) subsidiary for both cargo and passenger missions once the aircraft receives regulatory approval.

BETA Technologies is currently targeting early 2027 for Federal Aviation Administration (FAA) Part 23 certification of the ALIA aircraft.

To manage the planned electric fleet, Surf Air Mobility will utilize SurfOS. This proprietary operating Software was developed in a 2024 partnership with Palantir Technologies to handle scheduling, pricing, and fleet management for both conventional and electric aircraft operators. The company also plans to establish a factory-authorized Maintenance, Repair, and Overhaul (MRO) center in Hawaiʻi to support long-term operations.

The aviation industry has talked about electric flight for years. The question is no longer whether electric aircraft can fly, but rather how they can now be successfully integrated into commercial service. The data generated through this program will help define the operational, economic, and infrastructure requirements needed to advance the next generation of regional air transportation.

This perspective was shared by Surf Air Mobility Chief Executive Officer Deanna White in the June 26 press release.

State support and infrastructure development

The current flight campaign aligns with broader state-level efforts to decarbonize aviation in Hawaiʻi. In January 2026, Surf Air Mobility and BETA Technologies partnered with the Hawaii Department of Transportation (HDOT) to submit an application for the federal Electric Vertical Takeoff and Landing Integration Pilot Program (eIPP).

The data collected during the current trial will directly inform these infrastructure planning efforts. By measuring exact energy consumption and turnaround times on specific interisland routes, the operators aim to identify precise requirements for charging stations and grid capacity at local Airports.

AirPro News analysis

HawaiÊ»i serves as a logical proving ground for early electric aviation. The state’s geography dictates short stage lengths between islands, which align well with the range limitations of first-generation battery-electric aircraft. High local aviation fuel costs also improve the comparative economic case for electric propulsion.

We view this demonstration program as a critical transition phase for the advanced air mobility sector. Moving from controlled test flights to simulated commercial operations will expose the ALIA CTOL to real-world turnaround pressures, tropical weather conditions, and continuous battery cycling. The resulting data will be essential not only for BETA Technologies’ final push toward FAA Part 23 certification but also for determining the actual capital expenditure required to build out charging infrastructure across the Hawaiian islands.

Sources: Surf Air Mobility / BETA Technologies Press Release

Photo Credit: Surf Air Mobility

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Vertical Aerospace Flies Final eVTOL Prototype Ahead of CDR

Vertical Aerospace completed the first piloted flight of its final full-scale eVTOL prototype on June 5, 2026, ahead of its Critical Design Review.

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Vertical Aerospace (NYSE: EVTL) completed the maiden piloted flight of its final full-scale electric vertical takeoff and landing (eVTOL) prototype on June 5, 2026, doubling the manufacturer’s flight test capacity ahead of its upcoming Critical Design Review.

The flight took place at 8:49 BST at the company’s United Kingdom Flight Test Centre. According to a press release issued on June 9, 2026, the successful sortie followed the issuance of a new Permit to Fly from the UK Civil Aviation Authority (CAA) and marks the last major hardware iteration before the company establishes its certifiable design baseline.

Advancing toward Critical Design Review

The introduction of this final prototype is a prerequisite for the manufacturer’s Critical Design Review (CDR). Completing the CDR will freeze the aircraft’s design and clear the way for Vertical Aerospace to begin assembling its first pre-production airframes for the Valo four-passenger aircraft program.

Test Pilot Paul Stone commanded the June 5 flight. The addition of a second active aircraft to the test fleet allows the company to accelerate its data collection and validation processes.

“Getting our latest prototype into flight testing is an important milestone because it allows us to learn faster in real world conditions and keep building momentum towards certification,” Vertical Aerospace CEO Stuart Simpson said in the company announcement. “Expanding the flight test fleet will help us validate the aircraft more quickly, reduce risk, and move more efficiently towards bringing Valo into service.”

Dual-track flight test campaign

Vertical Aerospace is now operating two full-scale prototypes simultaneously. The company’s previous prototype is currently engaged in transition flight testing. That aircraft completed a milestone one-way transition flight on April 2, 2026, and continues to expand its flight envelope through thrustborne, wingborne, and transition phases.

The newly flown prototype will initially focus on all-electric flight testing. Once those phases are complete, the manufacturer intends to retrofit the aircraft for hybrid-electric flight testing. This future configuration is intended to support defense, logistics, and broader commercial applications beyond short-range urban air mobility.

The Valo program currently holds approximately 1,500 pre-orders from operators and lessors including American Airlines, Avolon, Bristow, GOL, and Japan Airlines.

AirPro News analysis

Reaching the final prototype stage is a critical threshold for any eVTOL developer. For Vertical Aerospace, getting a second aircraft into the air mitigates the schedule risk inherent in relying on a single test article. If one aircraft requires maintenance or modifications, the flight test campaign can continue. We view the planned hybrid-electric retrofit as a strategic pivot to expand the Valo’s addressable market, acknowledging that pure battery-electric range limitations may restrict early commercial use cases. Securing the UK CAA Permit to Fly for this specific airframe also demonstrates ongoing regulatory alignment as the company approaches its CDR.

Sources: Vertical Aerospace

Photo Credit: Vertical Aerospace

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SkyDrive SD-05 eVTOL Reaches 100 km/h in Flight Testing

SkyDrive’s SD-05 12-rotor eVTOL hit 100 km/h in Toyota, Japan, validating flight controls ahead of a 2028 commercial launch.

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Japanese eVTOL manufacturer SkyDrive Inc. announced on June 24, 2026, that its SKYDRIVE Model SD-05 aircraft successfully reached a speed of 100 km/h during flight testing in Toyota, Japan, validating the aerodynamic stability and flight control systems of the 12-rotor multicopter.

In a press release issued by the company, SkyDrive stated the high-speed flight test campaign confirms the aircraft functions as predicted during the design and analysis phase. The 100 km/h milestone is considered the viable operating speed for the short-hop inter-urban commercial flights the company plans to launch in 2028.

Flight test parameters and technical validation

The achievement of the 100 km/h speed target verifies the performance of the aircraft’s propulsion, flight control, and avionic systems under high-speed forward flight conditions. The testing campaign in Toyota was designed to evaluate the aircraft’s high-speed stability, controllability, and maneuverability.

The SKYDRIVE Model SD-05 utilizes a compact multicopter architecture featuring 12 independent rotors. Reaching this speed demonstrates the maneuverability and controllability required to advance the aircraft toward type certification with Japanese regulators.

Certification progress and manufacturing

The flight test milestone follows recent regulatory progress for the manufacturer. On April 15, 2026, SkyDrive received Approved Design Organization (ADO) certification from the Japan Civil Aviation Bureau (JCAB).

The ADO certification allows the manufacturer to self-verify specific portions of airworthiness checks. This regulatory approval made SkyDrive the first dedicated eVTOL developer in Japan to secure ADO status. Production of the SD-05 aircraft is already underway, having commenced in March 2024 at a manufacturing facility owned by Suzuki Motor Corporation.

Commercial expansion and fleet orders

As the aircraft advances through flight testing, SkyDrive has accumulated commercial commitments both domestically and internationally. On May 12, 2026, the manufacturer announced a Letter of Intent with Tohoku Air Service for the purchase of one SD-05. This agreement marked the first aircraft sale commitment from a Japan-based helicopter operator.

Internationally, SkyDrive reached a general understanding on January 30, 2026, with Dubai-based AeroGulf Services Company LLC for the potential purchase of up to 20 SD-05 aircraft. The agreement represents the manufacturer’s first detailed commercial exploration outside of the Japanese market.

To support domestic operations, SkyDrive launched Japan’s first vertiport operators’ consortium on May 12, 2026. The initiative aims to promote commercial eVTOL services across the Kansai area, with a target of establishing 100 operational air taxis around Osaka by 2035.

AirPro News analysis

We view the 100 km/h flight test milestone as a critical technical gate for the SD-05 program. Multicopter designs that rely on 12 independent rotors without a transitional wing face distinct aerodynamic challenges at higher forward speeds. Validating stability at 100 km/h indicates the flight control software and rotor pitch mechanisms are successfully managing the differential thrust required for forward flight. Combined with the recent JCAB ADO certification and the manufacturing partnership with Suzuki Motor Corporation, SkyDrive is assembling the necessary regulatory and industrial framework to meet its 2028 commercialization target.

Sources: SkyDrive Inc.

Photo Credit: SkyDrive

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