Sustainable Aviation
ZeroAvia Launches Glasgow Hydrogen Tech Hub for Clean Aviation
US firm ZeroAvia establishes Scottish hydrogen aviation center with government backing, targeting zero-emission flights and 350 new jobs by 2028.

Scotland’s Hydrogen Aviation Leap: ZeroAvia’s New Tech Hub Near Glasgow Airport
The aviation industry stands at a crossroads. With global pressure mounting to reduce carbon emissions and achieve net-zero targets by 2050, the sector, responsible for approximately 2-3% of global CO2 emissions, is under scrutiny. In this context, the announcement that ZeroAvia, a US-based hydrogen-electric aviation start-up, will build a new hydrogen tech centre near Glasgow Airport marks a pivotal moment for both the region and the future of sustainable aviation.
The facility, expected to become operational by 2028, will focus on developing and manufacturing hydrogen fuel cells for small to medium-sized electric aircraft. Backed by substantial investments from both UK and Scottish governments, the project is projected to create around 350 high-skilled jobs and position Scotland as a key player in the global hydrogen economy. Beyond job creation, this development signals a broader shift toward cleaner propulsion systems and a reimagined aviation landscape.
Hydrogen Fuel Cells: A Cleaner Path for Aviation
Understanding Hydrogen-Electric Propulsion
Hydrogen fuel cells generate electricity through an electrochemical reaction between hydrogen and oxygen, with water vapor as the only emission. Unlike traditional jet engines that burn fossil fuels, this process offers a zero-emission alternative for powering aircraft. The technology is particularly promising for short- and medium-haul flights, where battery-powered electric planes are limited by weight and energy density constraints.
ZeroAvia has already demonstrated the viability of this technology through successful test flights. In 2020, the company flew a six-seat Piper Malibu aircraft using a hydrogen-electric powertrain. More recently, in January 2023, it tested a 19-seat Dornier 228 aircraft with one of its engines powered by hydrogen fuel cells, showcasing the system’s scalability and reliability.
“The aviation industry is on the cusp of the biggest transformation since the advent of the jet age, with entirely new propulsion systems set to power the next era of aviation,”
Val Miftakhov, CEO of ZeroAvia
Why Scotland? Strategic Location and Skills
Scotland’s selection as the site for ZeroAvia’s new Hydrogen Centre of Excellence is no coincidence. The region boasts a strong foundation in aerospace engineering, a growing hydrogen sector, and proactive government support for green technologies. The facility will be located in the Advanced Manufacturing Innovation District near Glasgow Airport in Renfrewshire, strategically positioning it close to key transport and research infrastructure.
Scotland’s hydrogen ambitions extend beyond aviation. The country aims to become a significant producer of green hydrogen, generated using renewable energy sources like wind and solar. Glasgow Airport recently hosted a summit outlining plans to become a “hydrogen hub” by 2027, further reinforcing the region’s commitment to sustainable energy transitions.
Government backing has been crucial. Since 2019, ZeroAvia has received £32 million from the UK’s National Wealth Fund, £18.5 million in research grants, £9 million in funding from Scottish Enterprise, and £20 million from the Scottish National Investment Bank. These investments not only support innovation but also contribute to regional economic development through job creation and infrastructure growth.
Challenges and Considerations
While the promise of hydrogen-powered aviation is compelling, several challenges remain. One of the most pressing is the production method of hydrogen itself. “Green hydrogen” is environmentally friendly but costly to produce, while “grey hydrogen,” derived from fossil fuels, undermines the zero-emission goal. The environmental benefits of hydrogen aviation will depend heavily on how the hydrogen is sourced.
Infrastructure is another concern. Airports and aviation hubs will need to invest in hydrogen storage, refueling systems, and safety protocols. The certification process for new propulsion systems also involves rigorous testing and regulatory approvals, which can be time-consuming and costly. Despite these hurdles, the momentum behind hydrogen aviation continues to grow, driven by both technological advances and policy incentives.
Experts agree that hydrogen fuel cell technology is not a silver bullet but a significant piece of the decarbonization puzzle. Especially for regional flights, which make up a large share of global aviation activity, hydrogen offers a viable path to achieving net-zero goals without compromising performance or safety.
Economic and Environmental Impacts
Job Creation and Economic Growth
The new facility is expected to generate approximately 350 jobs in engineering, manufacturing, and support roles. This influx of high-skilled employment opportunities could stimulate the local economy and attract further investment in clean technology sectors. The development also aligns with broader UK and Scottish goals to become leaders in green manufacturing and sustainable innovation.
Scotland’s First Minister John Swinney emphasized the strategic importance of the project, stating it illustrates Scotland’s growing reputation in the global transition to net zero. UK Secretary Ian Murray echoed this sentiment, highlighting the collaboration between UK and Scottish governments in driving innovation and economic development.
Beyond direct employment, the facility is likely to have a ripple effect across the supply chain, benefiting local suppliers, research institutions, and service providers. The long-term economic benefits could be substantial, especially if Scotland becomes a key export hub for hydrogen aviation technology.
Environmental Gains and Global Trends
ZeroAvia’s initiative is part of a larger global effort to decarbonize aviation. Organizations like the International Air Transport Association (IATA) and the United Nations have set ambitious targets for reducing aviation emissions by 2050. Hydrogen, with its high energy density and zero emissions at the point of use, is gaining traction as a key solution.
Major aerospace companies, including Airbus and Universal Hydrogen, are also investing in hydrogen propulsion systems. Governments across Europe, Asia, and North America are funding research and infrastructure projects to support hydrogen aviation. ZeroAvia’s new centre in Scotland adds to this global momentum and positions the UK as a potential leader in the field.
The environmental impact of transitioning to hydrogen-powered aircraft could be profound. If scaled effectively, hydrogen aviation could drastically reduce emissions from regional flights, contributing significantly to climate goals without sacrificing connectivity or economic viability.
Conclusion
ZeroAvia’s decision to establish a hydrogen fuel cell technology centre near Glasgow Airport is more than a regional development—it’s a milestone in the global journey toward sustainable aviation. By combining technological innovation with strategic location and government backing, the project exemplifies how public-private partnerships can drive meaningful environmental and economic progress.
As the aviation industry grapples with the challenge of decarbonization, initiatives like ZeroAvia’s offer a glimpse into a cleaner, more efficient future. While hurdles remain, the groundwork is being laid for a new era of flight—one powered not by fossil fuels, but by hydrogen and human ingenuity.
FAQ
What is ZeroAvia?
ZeroAvia is a US-based start-up specializing in hydrogen-electric propulsion systems for aircraft, aiming to make aviation more sustainable.
Where will the new tech centre be located?
The new facility will be built near Glasgow Airport in Renfrewshire, Scotland, within the Advanced Manufacturing Innovation District.
How many jobs will the project create?
Approximately 350 high-skilled jobs in engineering, manufacturing, and support roles.
When will the facility be operational?
The centre is expected to be operational by 2028.
What are the environmental benefits of hydrogen aviation?
Hydrogen fuel cells emit only water vapor, offering a zero-emission alternative to traditional fossil fuel engines.
Sources
Photo Credit: ZeroAvia
Sustainable Aviation
Delta Air Lines Installs VCT Finlets on 240 Boeing 737NG Jets
Delta Air Lines will fit aerodynamic finlets from Vortex Control Technologies on 240 Boeing 737-800 and 737-900ER aircraft.

Delta Air Lines will install aerodynamic finlets from Vortex Control Technologies across 240 of its Boeing 737 Next Generation aircraft to reduce drag and lower fuel consumption.
Announced in a company press release on June 17, 2026, the modification program targets the carrier’s Boeing 737-800 and 737-900ER fleets. The installation follows computational fluid dynamics analysis and flight test validation, aligning with Delta’s broader sustainability objectives to address the 90 percent of its carbon footprint generated by jet fuel.
Aerodynamic modifications and fleet implementation
The Vortex Control Technologies (VCT) finlet package consists of small aerodynamic devices installed on the aft fuselage of the aircraft. These structures are designed to reshape airflow around the tail section, reducing flow separation and improving overall pressure distribution. By mitigating aerodynamic drag, the finlets directly decrease the amount of thrust required during cruise, resulting in lower fuel burn.
Delta Air Lines Chief Sustainability Officer Amelia DeLuca stated that the carrier seeks out innovations that reduce environmental impact and generate long-term operational benefits.
“We appreciate the strong partnership with VCT throughout the evaluation process and are looking forward to this implementation to further support our ongoing fleet efficiency initiatives,” DeLuca said.
VCT Chief Executive Officer Gil Morgan noted that equipping the 240 Delta aircraft represents a significant milestone for the manufacturer.
“We are proud to provide a practical technology that helps airlines improve fuel efficiency, reduce carbon emissions and enhance operating economics,” Morgan said.
Regulatory approval and industry adoption
The VCT finlet system operates under a Federal Aviation Administration (FAA) Supplemental Type Certificate (STC). The technology has steadily gained traction among Boeing 737 Next Generation (737NG) operators seeking incremental efficiency improvements. On September 26, 2025, the European Union Aviation Safety Agency (EASA) validated the FAA STC, clearing the devices for installation on European-registered aircraft.
Other operators have also adopted the modification. On July 29, 2025, Avelo Airlines announced a follow-on order for additional VCT finlets. The carrier reported proven fuel savings and emissions reductions after 18 months of in-service performance across its own Boeing 737NG fleet.
AirPro News analysis
We view Delta’s adoption of aft-fuselage finlets as a pragmatic approach to extending the economic viability of its Boeing 737NG fleet. While winglets have long been the industry standard for drag reduction, aft-body modifications represent an incremental but valuable efficiency gain for mature airframes. As airlines manage delayed deliveries of next-generation narrowbody aircraft, retrofitting existing fleets with drag-reducing technology offers an immediate reduction in fuel burn and emissions without requiring significant downtime or capital expenditure.
Sources: Delta News Hub
Photo Credit: Delta Air Lines
Sustainable Aviation
ATR Calls for EU Action on Regional Aviation Decarbonisation
ATR urges the EU to support regional aviation decarbonisation through SAF, retrofits, and next-gen propulsion funding.

Regional aircraft manufacturer ATR is urging the European Union (EU) to implement a coordinated financial and regulatory framework to support the decarbonisation of regional aviation, warning that the bloc risks losing its industrial sovereignty in the aeronautics sector.
In a public statement issued on June 16, 2026, the manufacturer detailed its strategic priorities following a June 9 gathering at the European Parliament. The event brought together industry stakeholders and policymakers under the patronage of Members of the European Parliament (MEP) Claire Fita and François Kalfon.
Strategic priorities for European regional aviation
ATR is positioning the regional aviation sector as the essential testing ground for low-carbon technologies. The company argues that regional Commercial-Aircraft, due to their size and mission profiles, offer the first commercially viable scale for validating emerging propulsion systems and retrofit technologies under real-world airline operating conditions.
To accelerate this transition, ATR is lobbying for pragmatic financial support directed toward SAF deployment, retrofit programs, and the development of next-generation propulsion. The manufacturer stressed that without coordinated regulatory and financial backing, Europe’s aerospace industry could cede its leadership position to international competitors.
Balancing decarbonisation with connectivity
The European aviation sector is currently navigating a complex transition driven by stringent environmental regulations and the high capital costs associated with fleet renewal and alternative fuels. ATR highlighted a growing concern among regional operators that the aggressive push for low-emission aviation could disproportionately impact connectivity in remote and underserved areas if not supported by adequate funding mechanisms.
The manufacturer identified SAF as the most effective short-to-medium-term lever for reducing carbon dioxide emissions. However, ATR noted that widespread adoption requires coordinated regulatory backing to ensure adequate supply and to manage the associated costs for smaller regional operators.
AirPro News analysis
We view ATR’s lobbying efforts at the European Parliament as a strategic move to ensure regional aviation is not overlooked in the EU’s broader environmental funding allocations. As mandates like the ReFuelEU Aviation initiative take effect, regional Airlines face disproportionate financial burdens compared to major network carriers due to their tighter margins and smaller economies of scale.
By framing the turboprop segment as the necessary incubator for future technologies, ATR is attempting to secure direct EU investment for its operators and its own research and development pipeline. The emphasis on industrial sovereignty also aligns closely with current European political priorities, reminding policymakers that supporting domestic Manufacturers is critical to maintaining a competitive edge against emerging aerospace programs globally.
Sources: ATR
Photo Credit: ATR
Sustainable Aviation
Twelve Opens First US Commercial Power-to-Liquid SAF Plant
Twelve’s AirPlant One in Moses Lake, WA begins producing E-Jet fuel from CO2, water, and renewable electricity.

Industrial carbon transformation company Twelve officially opened AirPlant One in Moses Lake, Washington, on June 10, 2026, establishing the first commercial-scale facility in the United States dedicated to producing power-to-liquid SAF. The facility utilizes captured carbon dioxide, water, and renewable electricity to manufacture synthetic fuel without upstream fossil fuel extraction.
In a press release issued by Twelve, the company confirmed the plant is now operational and producing E-Jet fuel, alongside a byproduct called E-Naphtha. The milestone follows a $645 million funding round secured in September 2024 to scale operations and fulfills a 2022 joint commitment from Alaska Airlines (AS) and Microsoft Corporation to purchase the facility’s output.
Commercializing power-to-liquid aviation fuel
Twelve’s proprietary process bypasses traditional biomass-based sustainable aviation fuel (SAF) production methods. Instead, the Moses Lake facility synthesizes drop-in aviation fuel directly from renewable electricity, water, and captured carbon dioxide. According to the company, this E-Jet fuel delivers up to a 90% reduction in lifecycle carbon emissions compared to conventional jet fuel.
Beyond emissions reductions, the power-to-liquid model introduces a new economic framework for Airlines fuel procurement. Because the primary input cost is electricity, production can be tied to long-term power purchase agreements. Twelve states this structure can offer airlines price predictability horizons exceeding 10 years, insulating operators from the volatility of global crude oil markets.
“We broke ground on AirPlant One with a simple thesis: that the fuels powering the global economy could be made from renewable electricity and air, anywhere in the world,” said Nicholas Flanders, Co-Founder and CEO of Twelve. “Today, that thesis is operational and Alaska Airlines will fly on fuel made right here in Washington State.”
Corporate Partnerships and market demand
The development of AirPlant One relied heavily on early demand signals from major corporate partners. In 2022, Alaska Airlines and Microsoft committed to purchasing the facility’s future output, providing the commercial foundation necessary to secure project financing. Alaska Star Ventures, the airline’s investment arm, also participated in Twelve’s recent funding rounds.
Ryan Spies, Managing Director of Sustainability for Alaska Airlines, noted that the partnership demonstrates how collaboration can advance SAF technology while diversifying fuel supply chains and strengthening energy security.
Microsoft is utilizing a book-and-claim accounting model to apply the environmental attributes of the E-Jet fuel toward reducing its reported business travel emissions. Melanie Nakagawa, Chief Sustainability Officer at Microsoft, stated that the company’s investment helps scale energy solutions and lays the groundwork for cleaner aviation globally.
AirPro News analysis
The activation of AirPlant One represents a critical pivot point for the US sustainable aviation fuel market. While biomass-derived SAF currently dominates the limited global supply, agricultural and waste feedstock constraints will eventually cap its scalability. Power-to-liquid synthetic fuels offer a theoretically limitless production ceiling, provided sufficient renewable energy and carbon capture infrastructure exist.
We view the localized production aspect as increasingly vital. As international Regulations begin mandating physical SAF blending at specific airports rather than relying entirely on book-and-claim credits, domestic facilities like AirPlant One will become essential infrastructure. The ability to offer airlines decade-long fixed fuel prices could also fundamentally alter airline cost structures if power-to-liquid production reaches parity with conventional jet fuel volumes.
Sources: Twelve Benefit Corporation
Photo Credit: Twelve Benefit Corporation
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