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NASA Launches AACES 2050 for Net-Zero Commercial Aviation by 2050

NASA’s AACES 2050 initiative funds five teams with $11.5M to develop aircraft and propulsion tech for net-zero carbon emissions by 2050.

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This article is based on an official press release from NASA.

NASA Launches AACES 2050 Initiative to Pioneer Net-Zero Commercial Aviation

In a decisive move to reshape the future of commercial air travel, NASA has officially launched the Advanced Aircraft Concepts for Environmental Sustainability (AACES) 2050 initiative. According to an official NASA release, the program is designed to identify and mature transformative aircraft designs, propulsion technologies, and sustainability solutions. The ultimate objective is to equip the aviation industry with the technological foundation required to achieve net-zero carbon emissions by the year 2050.

To kickstart this ambitious endeavor, NASA awarded a total of $11.5 million in Phase 1 contracts in November 2024. The funding has been distributed across five key institutions, comprising four private companies and one university, tasked with conducting comprehensive, “open-aperture” design studies. These initial exploratory studies are projected to be completed by mid-2026.

The AACES 2050 program falls under NASA’s Advanced Air Vehicles Program (AAVP) and its Advanced Air Transport Technology project. By commissioning both industry veterans and academic innovators, NASA aims to look beyond incremental improvements and current Sustainable Aviation Fuels (SAF) to fundamentally redefine how commercial aircraft operate in the mid-21st century.

The Road to Net-Zero Aviation

The push for radical innovation in aerospace is driven by pressing environmental targets. Industry estimates cited in the project’s background research indicate that aviation currently accounts for roughly 2.4% of global carbon emissions. Meeting the U.S. Aviation Climate Action Plan’s goal of net-zero emissions by 2050 requires a paradigm shift in aircraft engineering.

Building on Past Successes

According to NASA’s historical context, AACES 2050 follows a successful blueprint established by the agency in 2008 with its “N+3 Project,” which targeted airliners entering service in 2035. That earlier initiative laid the groundwork for NASA’s current Sustainable Flight National Partnership (SFNP) and the development of the X-66 Transonic Truss-Braced Wing demonstrator. AACES 2050 is explicitly designed to look beyond the SFNP, defining the next generation of commercial-aircraft that will take to the skies in the 2040s and 2050s.

Phase 1 Awardees and Technological Focus

The $11.5 million in Phase 1 funding has been awarded to five distinct teams, each bringing a unique technological approach to the challenge of decarbonizing aviation. The solicitation drew significant interest from across the aviation community, making the award process highly competitive, according to Nateri Madavan, Director for NASA’s Advanced Air Vehicles Program.

Exploring Radical Configurations and Hydrogen

Several awardees are focusing on moving away from traditional aircraft designs and conventional fuel sources. JetZero is utilizing its funding to explore technologies that enable cryogenic liquid hydrogen to be used as a commercial aviation fuel. These technologies will be evaluated on traditional tube-and-wing aircraft as well as JetZero’s signature “blended wing body” (BWB) airliner design. JetZero is collaborating with the University of Illinois Urbana-Champaign and hydrogen fuel-cell company ZeroAvia.

“JetZero has a long history of leading the way in design of blended-wing-body aircraft… We’ll be focused on how best to integrate hydrogen power and energy system in a novel aircraft design, which is optimally configured for step-change improvements in energy efficiency and emissions,” stated Phil Ansell, Professor of Aerospace Engineering at the University of Illinois, in a partnership announcement.

Similarly, the Georgia Institute of Technology is analyzing various sustainability technologies, heavily focusing on hydrogen-powered systems. They will use their Advanced Technology Hydrogen Electric Novel Aircraft (ATH2ENA) concept as a baseline starting point for their explorations.

Electra (Electra.aero) is taking a different approach, extending its novel distributed electric propulsion and unique aerodynamic design capabilities. Partnering with American Airlines, Honeywell Aerospace Technologies, Lockheed Martin Skunk Works, MIT, and the University of Michigan, Electra’s study will examine innovative wing and fuselage integrations aimed at reducing noise and emissions while enhancing air travel accessibility.

Legacy Aerospace Steps Up

Established aerospace giants are also playing a critical role in the AACES 2050 initiative. Aurora Flight Sciences, a Boeing Company, is conducting a comprehensive exploration of alternative aviation fuels, novel propulsion systems, aerodynamic technologies, and aircraft configurations, leveraging Boeing’s extensive history in commercial aircraft design.

Pratt & Whitney, a division of RTX Corporation, is focusing on a broad suite of commercial aviation propulsion technologies. Their goal is to target thermal and propulsive efficiency improvements that can drastically reduce fuel consumption and greenhouse gas emissions.

NASA’s Role as an Industry Catalyst

By funding early-stage, high-risk research, NASA continues to act as a vital catalyst for the aerospace sector, enabling private companies and startups to pursue radical innovations that might otherwise lack immediate commercial justification.

“Through initiatives like AACES, NASA is positioned to harness a broad set of perspectives about how to further increase aircraft efficiency, reduce aviation’s environmental impact and enhance U.S. technological competitiveness in the 2040s, 2050s, and beyond,” said Bob Pearce, NASA Associate Administrator for the Aeronautics Research Mission Directorate, in the agency’s press release.

AirPro News analysis

At AirPro News, we observe two major industry shifts highlighted by the AACES 2050 award selections. First is the “Hydrogen Bet.” With JetZero and Georgia Tech heavily focused on liquid hydrogen as a primary fuel source, there is a growing consensus that while Sustainable Aviation Fuel (SAF) serves as a necessary bridge for the 2030s, cryogenic hydrogen may be the ultimate destination for true zero-emission flight by 2050.

Second, the initiative signals a potential departure from the traditional “tube and wing” aircraft architecture. The inclusion of JetZero’s blended wing body and Electra’s distributed electric propulsion concepts suggests that NASA and its industry partners believe the fundamental shape of commercial airliners must evolve to meet aggressive climate targets. We anticipate that the results of these Phase 1 studies, due in mid-2026, will provide the first concrete blueprints for the aircraft of the late 21st century.

Frequently Asked Questions (FAQ)

What is the AACES 2050 initiative?
The Advanced Aircraft Concepts for Environmental Sustainability (AACES) 2050 is a NASA program aimed at developing transformative aircraft designs and propulsion technologies to help the commercial aviation industry achieve net-zero carbon emissions by 2050.

Who received funding under Phase 1?
NASA awarded a total of $11.5 million to five institutions: Aurora Flight Sciences (A Boeing Company), Electra, JetZero, Pratt & Whitney (an RTX Corporation division), and the Georgia Institute of Technology.

When will the Phase 1 studies be completed?
The initial exploratory design studies began in late 2024 and are expected to be completed by mid-2026.

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Photo Credit: Electra

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Technology & Innovation

Airbus A380 Flight Lab Unveiled for CFM RISE Open Fan Testing

Airbus and CFM International unveil A380 flight lab livery at Farnborough 2026 for CFM RISE Open Fan engine tests.

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Airbus SE and CFM International unveiled the livery for the Airbus A380 flight lab dedicated to testing the CFM RISE (Revolutionary Innovation for Sustainable Engines) Open Fan engine architecture at the Farnborough International Airshow on July 21, 2026.

The presentation coincides with the completion of the first conceptual flight test design review. The joint program between Airbus and CFM International, a 50/50 joint company between GE Aerospace and Safran Aircraft Engines, aims to reduce fuel consumption and carbon dioxide emissions by 20 percent compared to current commercial engines.

Transitioning to flight test preparation

The designated testbed aircraft, an Airbus A380 identified as Manufacturer Serial Number (MSN) 114, departed a six-year desert storage in France on July 16, 2026. The aircraft relocated to Shannon, Ireland, to undergo painting and structural modifications. Engineers will eventually mount the open fan engine in the number 2 position on the inboard left wing for the Test-Flights campaign.

CFM International recently completed the preliminary design review for the compact core system, open fan, and outlet guide vanes. Arjan Hegeman, Vice President of Future of Flight Engineering at GE Aerospace, stated that this milestone allows the Manufacturing of parts for the grounded demonstrator to begin.

Prioritizing engine durability

While the open fan design removes the traditional engine casing to accommodate a larger fan and reduce drag, program leaders are placing equal emphasis on component longevity. GE Aerospace has completed over 350 tests and 3,000 endurance cycles on core components, which includes early dust ingestion testing.

“If there’s anything we’ve learned over the last years, it’s that durability matters as much as, if not more than, fuel efficiency,” Hegeman said.

Hegeman noted that the engineering teams are aiming to reach technology readiness level six by the turn of the decade.

AirPro News analysis

The explicit focus on durability during the early testing phases of the CFM RISE program reflects a broader industry shift. Current-generation narrowbody engines have faced well-documented time-on-wing and maintenance challenges, prompting Manufacturers to prioritize robust operating characteristics alongside fuel efficiency gains. By subjecting core components to 3,000 endurance cycles and dust ingestion tests years before the first flight, CFM International is working to ensure the open fan architecture can withstand harsh operational environments from entry into service. We expect this dual mandate of efficiency and reliability to define the Certification pathway for next-generation Propulsion systems.

Sources: GE Aerospace Press Release

Photo Credit: GE Aerospace

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Technology & Innovation

Joby Aviation and Toyota Form eVTOL Manufacturing Joint Venture

Joby Aviation and Toyota establish a joint venture to manufacture the S4 eVTOL, with Toyota holding a 51% stake.

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Joby Aviation, Inc. (JOBY) and Toyota Motor Corporation (TM) have formalized their nearly decade-long partnership by establishing a joint venture to manufacture electric vertical take-off and landing (eVTOL) aircraft. The new entity, named the Joby Toyota Aero Manufacturing Preparation Company, will focus on scaling commercial production of the Joby S4 Series eVTOL aircraft.

Announced in a press release on June 30, 2026, following a U.S. Securities and Exchange Commission (SEC) 8-K filing on June 29, 2026, the alliance combines Joby’s electric aviation technology with Toyota’s established production systems expertise. The joint venture will operate across locations in Santa Cruz, California, and Toyota City, Japan.

Joint venture structure and financial stakes

Toyota holds a 51 percent majority stake in the new manufacturing company, acquired through the purchase of 1.02 million shares for $1.02 million. Joby retains the remaining 49 percent stake, having purchased 980,000 shares for $980,000. The joint venture will be governed by a five-member board of directors, with three members designated by Toyota and two designated by Joby.

The agreement includes specific intellectual property licensing arrangements between the two parent companies. Joby will license certain aircraft-related intellectual property to the joint venture on a royalty-free basis. In return, Toyota will license manufacturing-related intellectual property to the venture, which includes certain royalty-bearing rights.

Scaling eVTOL production

The formal joint venture builds upon a foundation of significant financial and technical support from the Japanese automaker. Toyota has provided approximately $900 million in total capital to Joby to date. The automaker is already providing technical assistance as Joby establishes a series production line for the S4 eVTOL aircraft at a facility in Ohio.

In the June 30 press release, Joby Aviation founder and CEO JoeBen Bevirt highlighted the depth of the corporate relationship.

“Toyota has been by Joby’s side for nearly a decade, providing invaluable guidance and support as we built the foundation for Manufacturing our aircraft. Today’s announcement reflects the strength of our relationship and our shared confidence in the opportunity ahead.”

Toyota Motor Corporation Chairman Akio Toyoda stated that the company views air mobility as a natural extension of its philosophy of providing mobility for all, expanding its focus from the ground into the sky to bring new value to society.

Certification progress and next steps

The manufacturing alliance aligns with Joby’s ongoing Certification efforts with the U.S. Federal Aviation Administration (FAA). During the first quarter of 2026, Joby began flying its first FAA-conforming aircraft for type inspection authorization. This testing phase is a required step as the company works toward achieving full FAA type certification for the S4 Series.

With the joint venture now legally established, the two companies will begin integrating their engineering and manufacturing teams across the California and Japan facilities to prepare for high-volume aircraft production.

AirPro News analysis

We view the formalization of the Joby Toyota Aero Manufacturing Preparation Company as a critical de-risking event for Joby’s production ambitions. While designing and certifying an eVTOL aircraft presents significant regulatory hurdles, manufacturing these vehicles at scale with automotive-style efficiency is an entirely different challenge that has historically troubled aerospace Startups. By securing a majority-stake commitment from Toyota, Joby gains direct access to one of the world’s most proven manufacturing systems. Furthermore, the intellectual property arrangement, where Toyota retains royalty-bearing rights on its manufacturing processes, suggests the automaker sees long-term revenue potential in aerospace production beyond its initial capital Investments.

Sources: Joby Aviation, Inc. and Toyota Motor Corporation

Photo Credit: Joby Aviation

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Sustainable Aviation

KBR Selected for Asia’s First Ethanol-to-Jet SAF Plant in Singapore

KBR will provide PureSAF technology licensing and FEED services for a 100,000-ton/year SAF facility on Jurong Island, Singapore.

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On June 29, 2026, KBR announced its selection by Keppel Ltd. and Aster Chemicals and Energy to provide technology licensing and Front-End Engineering Design (FEED) services for a proposed 100,000-ton-per-year SAF (SAF) facility on Jurong Island, Singapore.

The planned facility is envisioned as Asia’s first commercial-scale ethanol-to-jet (EtJ) SAF plant. According to the KBR press release, the project will utilize the company’s PureSAF technology to produce a 100% drop-in jet fuel, supporting Singapore’s national mandate to increase sustainability usage across the aviation sector.

PureSAF technology and project scope

The Jurong Island facility will leverage PureSAF, a technology originally developed by Swedish Biofuels AB and engineered for commercial-scale production by KBR, which holds the exclusive global license. The process is designed to convert ethanol into aviation fuel that requires no blending with conventional Jet A or Jet A-1 before use.

In a statement accompanying the announcement, KBR President and CEO Stuart Bradie highlighted the system’s flexibility.

“KBR’s PureSAF is a feedstock-flexible, bankable technology that is designed to deliver a 100% drop in jet fuel, ready to power aircraft without blending. We are constantly innovating our SAF solution to make it compatible with feedstock availability in different regions and to enable the aviation industry to transition to low-carbon jet fuel with a cost-optimized approach.”

The FEED study will determine the technical configuration and project capital expenditure required for the facility. The development remains subject to regulatory approvals and a final investment decision (FID) by the project partners.

Aligning with Singapore’s aviation mandates

The selection of KBR follows a January 28, 2026, agreement between Keppel’s Infrastructure Division and Aster to jointly assess the development of the Jurong Island site. Aster operates as a joint venture between Indonesian petrochemical company Chandra Asri and Swiss commodities trader Glencore.

The proposed 100,000-ton annual production capacity aligns directly with targets set by the Civil Aviation Authority of Singapore (CAAS). Starting in 2026, the CAAS mandates a 1% SAF uplift for all departing flights from the country, with a stated goal of increasing that requirement to between 3% and 5% by 2030.

Alongside the SAF plant contract, KBR and Keppel signed a Memorandum of Intent to collaborate on broader energy transition initiatives. The companies plan to explore technologies related to waste-to-energy, plastic recycling, biofuels, and artificial intelligence-driven digitalization.

AirPro News analysis

We view the progression of the Jurong Island project to the FEED stage as a critical indicator of the Asia-Pacific region’s readiness to scale SAF production. While North America and Europe have led early SAF capacity investments, Singapore’s firm regulatory mandate provides the demand certainty required to underwrite commercial-scale facilities in Southeast Asia. The choice of an ethanol-to-jet pathway is particularly notable, as it allows operators to bypass the constrained supply of fats, oils, and greases that limit hydroprocessed esters and fatty acids (HEFA) production volumes. The project’s ultimate realization hinges on the upcoming final investment decision, which will test the commercial viability of the EtJ process in the current economic environment.

Sources: KBR

Photo Credit: KBR

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