HD Hydrogen stated on August 7, 2026, that it just finished pre-use assessment of its SOFC power generation equipment HD250 and HD300 as well as manufacturing facilities from the Korea Electrical Safety Corporation, creating a product mass production system.

The company was founded in August 2024 and developed SOFC power generation equipment with high efficiency, and along with it, constructed a production line in a matter of two years.

Interestingly, HD250 and HD300 are now mass-produced, small- and mid-size power generation SOFC products of 249kW-class and 285kW-class, respectively, for which demand from the market is pretty high. The water-free operation technology, which can operate without an additional external water supply, improves the ease of installation and the effectiveness of operation, and makes the products suitable for different installation settings and operating conditions.

The Korean-style SOFC is known as a next-generation power generation technology that can realize high generation efficiency within the hydrogen fuel cells. It can be used with a variety of fuels such as hydrogen and natural gas and can additionally employ the heat generated in the power generation process and thereby is attracting focus as an essential technology when it comes to eco-friendly distributed power.

HD Hydrogen aims to target the domestic eco-friendly small-scale power plant market initially and to get into the self-consumption power market for energy-intensive facilities, including data centers. In addition, the company will accelerate development of high-output and high-durability SOFC products for ships, thereby expanding its scope of operations into global distributed power generation as well as environmentally friendly energy markets.

According to Nam Young-jun, the CEO of HD Hydrogen, “The background to being able to complete product development and establish a mass production system in a short period after our founding lies in the manufacturing capabilities HD Hyundai has accumulated. Using this mass production system as a springboard, we will actively expand our SOFC business not only in the onshore power generation market but also in the maritime market going forward.”

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The vehicle will operate on routes where the long range of the fuel cell can be fully utilized to illustrate its advantages. The operator is Alsa, which is a Spanish bus company.

According to the member of the Bosch Mobility sector board and president of Bosch Power Solutions, Thomas Pauer, “The fuel cell is the perfect complement to battery-electric powertrains – even in bus operations. Fuel cells are especially well-suited for buses that travel longer distances every day and rarely have the opportunity to charge en route. With this trial, we can clearly demonstrate that Bosch’s fuel-cell technology is ready for the demands of large-scale deployment in passenger transport.”

It is worth noting that the test vehicle has been thoroughly tested in the last weeks and obtained the required approval. Now the durability and performance of the fuel-cell powertrain in real working conditions day-to-day will be checked. The test bus is fitted with a Bosch fuel cell power module C190 fuel-cell system.

This compact system, which is built around a horizontal double stack, produces a constant output of 190 kilowatts. The existing hydrogen tank capacity allows for ranges exceeding 1,000 kilometers with refuelling times of only 10 to 15 minutes. It also allows the bus to be utilised for intercity service. Besides the FCPM C190, Bosch also manufactures the FCPM C300, a system intended for heavy tour buses as well as trucks. And rounding off the range is the FCPM C100. Its flat design and uninterrupted power output of 100 kilowatts make it the perfect solution for city buses.

The EU rules are pushing the bus industry to innovate

EU regulations are forcing bus operators along with city transit companies to seek alternative options to diesel engines. Besides regulations for better air quality within cities, climate regulations further call for more sustainable powertrain systems. For instance, new city buses need to lower carbon emissions by 90% from 2019 levels by 2030, with all other buses needing to do so by 2040. Vehicles with fuel cell power modules that the EU classifies as zero-emission vehicles can play a major part in this regard. The European Automobile Manufacturers’ Association – ACEA said more than 38,000 new buses had been registered in the EU in 2025.

Bosch technology throughout the whole hydrogen value chain

Bosch strongly supports the development of an H2 economy and works on technical approaches for the production, infrastructure and utilisation of hydrogen. In 2025, the organization announced the commercial launch of its Hybrion PEM electrolyzer stack for producing hydrogen. Bosch is also developing technology for hydrogen engines and delivers the right components when it comes to port and direct injection. By 2025 end, a team of developers from Bosch received the German Future Prize, which is the federal president’s award in terms of technology and innovation, for the development of the mobile fuel cell.

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The deal is an important turning point in the global effort to decarbonize heavy-duty transport, bolstering one of the most ambitious collaborations of the industry when it comes to the development of hydrogen fuel cell systems for commercial vehicles.

It conforms to a non-binding MOU signed earlier in 2026 and is contingent upon regulatory approval before the deal is scheduled to close around the end of 2026 or early 2027.

Following the deal, Toyota will be a one-third shareholder on equal terms compared with Volvo Group and Daimler Truck in cellcentric – a company created by Volvo and Daimler Truck in 2021 to speed up the commercialization of hydrogen fuel cell technology as far as heavy-duty applications are concerned.

The companies said the alliance would bolster the technological leadership of cellcentric, expand industrial scale, and enhance its competitive edge as demand for zero-emission transport solutions increases.

The alliance draws on the complementary advantages of the three makers.

Volvo Group and Daimler Truck have a broad background in designing and manufacturing commercial vehicles, and Toyota has over 30 years of research and development experience in hydrogen fuel cell technology, which includes passenger cars like the Mirai.

The companies are collaborating to speed up the development, production, and commercialization of hydrogen fuel cell systems intended for heavy-duty trucks as well as other applications in which battery electric technology encounters real-world challenges.

Unlike vehicles powered by batteries, hydrogen fuel cell vehicles produce power from an electrochemical reaction that happens between hydrogen and oxygen, with water vapor being the only by-product.

The technology is seen as particularly suitable for long-haul trucking due to its shorter refueling times, less total vehicle weight, and longer driving ranges than traditional battery-electric systems.

cellcentric is going to continue to be an independent company catering to a broad spectrum of customers in heavy-duty on-road and off-road transport as well as offering fuel cell systems for coaches, stationary power generation, rail applications, and also heavy industrial equipment.

All the three parent companies said they were going to continue to compete in every other aspect of their businesses and that the joint venture would be limited to fuel cell technology.

The investment from Toyota is anticipated to improve capabilities of cellcentric through several key areas, such as the development of fuel cell unit cells, which serve as the basic building blocks of hydrogen fuel cell stacks, in addition to system integration, manufacturing processes, and control architecture.

The companies say more collaboration is needed to help reduce the cost of production and achieve the economies of scale necessary to make hydrogen-powered transport commercially viable.

Beyond developing technology, the partners plan to collaborate with governments, industry groups, and companies throughout the hydrogen value chain to speed up the deployment of hydrogen infrastructure.

One of the major barriers to the wider use of hydrogen-powered commercial vehicles is the absence of large-scale hydrogen production infrastructure and transportation networks as well as refuelling facilities. Through contributing to the wider hydrogen ecosystem, the companies aim to lay the groundwork for the technology to reach mass-market adoption.

Cellcentric already staffs over 560 specialists in Germany as well as Canada and has set up a large portfolio of intellectual property in the form of approximately 700 patents for its fuel cell technologies. The company seeks to be one of the preeminent tier-one suppliers of hydrogen fuel cell systems in the world as far as commercial transportation is concerned.

The announcement follows a global increase in government action to curb emissions coming from transport, which is one of the largest sources of greenhouse gas emissions. Heavy-duty freight remains one of the hardest sectors to decarbonize due to the demanding operating requirements that are placed on long-haul trucks.

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The exhibition signifies the first chance to display its IE-SOAR™ hydrogen fuel cell systems for UAV manufacturers as well as operators from China as the country quickly develops its low-altitude economy via investment in commercial drone uses. It has nearly ten years of experience in commercial installation, with several hundred fuel cell systems deployed in Europe, North America as well as Asia.

The fuel cells of IE-SOAR™ hydrogen fuel cell systems for UAV manufacturers can support three to five times longer flights than battery-powered aircraft, with just water vapor emitted. The IE-SOAR range provides fully integrated power systems that are direct replacements for battery packs and also offers quick refueling to assist operators in keeping aircraft in the air for longer periods while minimizing downtime.

At stand C245, Intelligent Energy will be showcasing its complete IE-SOAR product portfolio, consisting of 800W and 1.2kW as well as 2.4kW fuel cell systems for fixed-wing, rotary-wing, as well as vertical take-off and landing – VTOL unmanned aircraft. Guests will also be able to witness a fixed-wing UAV with an integrated IE-SOAR system, as well as demonstrations of commercial platforms already functioning with the technology all over the globe.

It is well to be noted that China has made the low-altitude economy a strategic national objective, spurring investments in commercial drone applications in areas such as logistics, infrastructure inspection, emergency response, and surveying as well as urban air mobility. Many of these tasks call for long-duration flights or operations far beyond visual line of sight – BVLOS, where battery constraints can become a limitation.

Intelligent Energy has been in the UAV market since 2016 and has installed several hundred hydrogen fuel cell systems to support commercial operations involving offshore wind testing, pipeline inspection, surveying, transportation, monitoring, and BVLOS missions.

Intelligent Energy’s operations director, Martin Schaefer, remarks that “China’s low-altitude economy is developing rapidly, and we see enormous potential for hydrogen fuel cells as those aircraft take on longer and more demanding missions.  We’ve spent almost a decade supplying UAV fuel cell systems for commercial applications around the world, and this exhibition is an opportunity to show Chinese manufacturers what our technology can already deliver.  Just as importantly, it’s a chance to understand the challenges they’re solving and work with them to integrate our products into the next generation of UAV platforms.”

Notably, the International Low Altitude Economy Expo 2026 will be held in Shanghai between 22 and 25 July, 2026, and Intelligent Energy is going to be on stand C245.

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Understanding the Thermodynamic Foundations of Solid Oxide Electrolysis

To appreciate the significance of high temperature electrolysis, one must first look at the underlying thermodynamics of the water-splitting reaction. Splitting a water molecule into hydrogen and oxygen requires a specific amount of energy, known as the total enthalpy of the reaction. This total energy demand consists of two distinct components: the electrical work, or Gibbs free energy, and the thermal energy, which is represented by the product of temperature and entropy. As the operating temperature of an electrolyzer increases, the proportion of energy that can be supplied as heat grows, while the requirement for high-value electrical energy decreases. This shift is the core reason why high temperature electrolysis, particularly when utilizing Solid Oxide Electrolysis Cells (SOEC), can achieve electrical efficiencies that approach or even exceed one hundred percent when waste heat is available.

The physics of this process is rooted in the increased mobility of ions at elevated temperatures. In an SOEC, oxygen ions are transported through a solid ceramic electrolyte, typically made of yttria-stabilized zirconia (YSZ). At high temperatures, this ceramic becomes highly conductive to oxygen ions but remains an insulator for electrons. This allows the system to operate at high current densities with minimal internal resistance. Unlike traditional alkaline or proton exchange membrane systems that operate in the liquid phase, high temperature electrolysis works with steam. Converting water to steam outside the electrolyzer using waste heat from industrial processes further optimizes the energy balance, as the latent heat of vaporization is not drawn from the electrical supply. This thermal integration allows SOEC systems to operate at significantly lower voltages than PEM or alkaline systems, typically between 1.1 and 1.3 volts per cell, compared to 1.8 to 2.0 volts for low-temperature technologies.

The Role of Industrial Synergy and Waste Heat Recovery

One of the most compelling arguments for the deployment of high temperature electrolysis is its ability to integrate with high-heat industrial processes. Industries such as steel manufacturing, chemical production, and petroleum refining generate vast quantities of low-to-medium grade waste heat that are often vented into the atmosphere. By capturing this thermal energy and piping it into an SOEC system, these facilities can produce green hydrogen with significantly lower operational costs. This synergy transforms the electrolyzer from a standalone energy consumer into a critical component of a circular industrial ecosystem.

In a modern steel mill, for example, the heat from blast furnaces or electric arc furnaces can be utilized to generate the high-pressure steam required for high temperature electrolysis. The hydrogen produced can then be used directly as a reducing agent in the Direct Reduced Iron (DRI) process, replacing carbon-intensive coking coal. This creates a closed-loop system where the byproduct of one process becomes the feedstock for another, drastically reducing the overall carbon footprint of the facility. The same principle applies to nuclear power plants, which provide a stable, high-temperature heat source alongside carbon-free electricity, making them ideal partners for large-scale hydrogen hubs. Projects like the MultiPLHY project in Rotterdam are already demonstrating the feasibility of this integration, using SOEC technology to produce hydrogen for refinery operations with efficiencies far exceeding state-of-the-art PEM systems.

Material Challenges and Technological Evolution in SOEC Systems

Despite the clear thermodynamic benefits, high temperature electrolysis has faced challenges related to material durability and system longevity. Operating at nearly a thousand degrees Celsius creates a harsh environment for the ceramic and metallic components of the electrolyzer stack. Thermal cycling the repeated heating and cooling of the system can lead to mechanical stresses and micro-cracks in the electrolyte or the sealant materials. Furthermore, the high temperature promotes chromium poisoning of the cathode, where chromium species from the metallic interconnects migrate and block the active sites of the electrode.

However, over the past decade, significant strides have been made in material science to mitigate these issues. Researchers are now developing advanced ceramic-metal composites, or cermets, that offer better thermal expansion matching and enhanced resistance to degradation. Innovations in electrode design, such as the use of Lanthanum Strontium Manganite (LSM) or Nickel-YSZ cermets with optimized microstructures, have played a crucial role in improving the lifespan of SOEC units. By increasing the active surface area and improving gas diffusion through graded porosity, engineers have managed to lower the overpotential and reduce the thermal strain on the cell. Specialized coatings for interconnects have also been developed to prevent chromium evaporation, significantly extending the stack’s operational life to over 40,000 hours in some pilot configurations.

Economic Viability and the Pathway to Scalability

The economics of green hydrogen are heavily dependent on two factors: capital expenditure (CAPEX) and operating expenditure (OPEX). High temperature electrolysis excels in the latter. Because it requires roughly 25-30% less electricity per kilogram of hydrogen produced (assuming external heat is available), the OPEX of an SOEC system is inherently lower than that of PEM or alkaline systems, especially in regions where electricity prices are high. While the CAPEX for high temperature systems has historically been higher due to the complexity of the materials and thermal integration, these costs are falling rapidly as manufacturing processes scale.

Mass production of ceramic cells through tape casting and screen printing, combined with automated stack assembly, is bringing the costs of high temperature electrolysis into alignment with more established technologies. Companies like Haldor Topsoe, Sunfire, and Bloom Energy are investing heavily in gigawatt-scale manufacturing facilities to capture this market. Moreover, when considering the “Levelized Cost of Hydrogen” (LCOH), the higher efficiency of SOEC often compensates for the initial investment within a few years of operation. Governments are recognizing this potential, offering subsidies and tax credits that specifically target high-efficiency production methods. As the global supply chain for ceramic materials matures and more specialized manufacturers enter the market, we can expect to see a significant acceleration in the deployment of these systems in industrial clusters.

Comparing SOEC with Low-Temperature Electrolysis Technologies

To fully understand the market position of high temperature electrolysis, it is helpful to compare it with the incumbent low-temperature technologies. Alkaline water electrolysis (AWE) is the oldest and most mature method, relying on a liquid electrolyte and non-noble metal catalysts. It is relatively inexpensive to build but suffers from lower efficiency and limited flexibility in responding to the intermittency of wind and solar power. Proton Exchange Membrane (PEM) electrolysis, on the other hand, is highly responsive and compact but requires expensive noble metals like iridium and platinum, which poses a long-term supply chain risk and limits its scalability.

High temperature electrolysis occupies a unique niche that bridges these two worlds. It offers the high efficiency that alkaline systems lack and avoids the heavy dependence on rare metals that plagues PEM technology. While it is less suited for small, distributed applications that require rapid start-up times due to the time needed to heat the stack to operating temperature it is the superior choice for large-scale industrial baseload hydrogen production. The choice between these technologies often comes down to the specific application: if high-grade heat is available and the goal is maximum efficiency for heavy industry, SOEC is the undisputed leader. Its ability to perform co-electrolysis splitting both water and carbon dioxide simultaneously to produce syngas further expands its utility in the production of sustainable aviation fuels and green chemicals.

Strategic Integration into the Global Hydrogen Economy

As we look toward the 2030 and 2050 climate targets, the role of high temperature electrolysis will be pivotal in decarbonizing “hard-to-abate” sectors. These sectors, which include heavy-duty shipping, long-haul aviation, and primary steel production, cannot be easily electrified and require a high-energy-density molecule like hydrogen. By providing a pathway to produce this hydrogen at the lowest possible energy cost, SOEC technology acts as an enabler for the broader green transition. The development of hydrogen valleys and industrial hubs, where production is co-located with demand and waste heat sources, will be the primary testing ground for this technology.

Future research is focused on further lowering the operating temperature of SOEC to the “intermediate” range of 500-600 degrees Celsius. This would allow for the use of less expensive stainless steel interconnects and sealants, further driving down CAPEX. Additionally, the development of reversible Solid Oxide Cells (rSOC), which can switch between electrolysis mode (producing hydrogen) and fuel cell mode (producing electricity), offers a unique solution for long-duration energy storage. During periods of excess renewable energy, the system produces hydrogen during periods of low supply, it consumes the hydrogen to provide power back to the grid. This versatility makes high temperature electrolysis not just a production tool, but a critical asset for grid stability and energy security.

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The two breakthroughs come as the UAV business of the hydrogen fuel cell manufacturers continues to expand, with consumer demand increasingly for hydrogen-powered drones that can fly greater distances, carry larger payloads, and stay in the air for longer periods compared to battery-powered alternatives.

The new system is designed to fulfill the need for long-range, fixed-wing UAVs that are capable of transporting payloads ranging from 150 kg to 750 kg for routine surveillance, defence, security as well as logistics operations.

The 120kW hydrogen fuel cell power system, identified as IE-FLIGHT™ 120, is the most recent addition to Intelligent Energy’s IE-FLIGHT™ family of aerospace fuel cell product lines. It sits between the existing IE-SOAR™ systems of the company for which it has won the record contract and the higher-power fuel cell technology in development pertaining to electric vertical takeoff and landing aircraft as well as regional aviation.

The developments follow the commitment made by the UK government to make investments of £5 billion in drones and autonomous systems as part of its Defence Investment Plan, backing the goal to grow the domestic drone industry of the UK. They also indicate the growing commercialization of hydrogen fuel cells as far as UAV applications are concerned.

Intelligent Energy says its fuel cells could run flights three to five times longer compared to the flights of battery-powered planes, with emissions of merely water vapor. The technology also offers lower vibration and noise levels, decreased maintenance needs, and a reduced thermal signature when compared with conventional combustion engines, which makes it especially appropriate for monitoring, defence and security tasks.

Interestingly, Intelligent Energy was awarded £17m from the HEIGHTS programme which is Aerospace Technology Institute-backed, in 2026 so as to speed up the development of its high-power aviation fuel cell systems. The company also made an investment in a new high-power fuel cell test centre at Northamptonshire’s Chelveston so as to support the next phase of development.

According to the Chief Commercial Officer at Intelligent Energy, Greg Harris, “The UAV market is moving rapidly towards larger aircraft that need to fly further, carry heavier payloads, and stay airborne for much longer. That’s where hydrogen fuel cells have a clear advantage.  Our new fixed-wing power system demonstrates how our fuel cell technology can scale to an entirely new class of aircraft. It builds on the same platform we’re developing for larger aircraft and shows how hydrogen can unlock new capability across both the UAV and aerospace sectors.  Combined with a record order for our IE-SOAR technology, this launch underlines a clear trend in the market. Operators are increasingly turning to hydrogen propulsion to achieve longer endurance, greater payload capacity, and improved mission capability.”

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The agreement to supply hydrogen fuel cell systems is an important milestone towards commercializing hydrogen-based primary power for AI workloads that are energy-intensive and strengthens the relationship between Swedish fuel cell maker and ECL, the data center operator, along with the industrial partner Bosch.

The order includes PS190 fuel cell systems from PowerCell and Distributed Master Controller licenses for ECL’s CSC-1 campus of a 35-megawatt site, which will include the fuel cells in a FlexGrid microgrid that integrates grid electricity, batteries, and natural gas as well as hydrogen. The deliveries are expected to be completed by the end of 2026. Importantly, the fuel cells will be employed in the main energy infrastructure, not as backup generation, increasing power resilience for 24/7 AI computing.

As per one of the persons familiar with the project, this isn’t a pilot, but it is a multi-megawatt installation, which will go into live production infrastructure.

The Santa Clara setup is built on an effective reference installation at ECL’s MV-1 AI data center located in Mountain View, California, where operator has been maintaining a liquid hydrogen-powered AI infrastructure for over two years. In this time, ECL assessed a number of fuel cell technologies and selected PowerCell as its partner of preference.

Along with the SEK 30 million firm order, both companies additionally entered into a non-binding memorandum of understanding – MoU for about 300 megawatts of extra hydrogen fuel cell capacity as ECL extends its FlexGrid footprint. The 300 MW is an objective, not committed capacity or assured revenue, but it’s a move in the hydrogen data center paradigm from demonstrations to scalable and long-term infrastructure that is powered by industrial manufacturing power.

That manufacturing foundation comes from Bosch, which is a major shareholder of PowerCell. This German industrial giant offers operators of data centers large-scale production capacity and service assistance in North America, making it an essential partner for meeting the dependability and volume needs. The alliance will successfully integrate the proprietary PowerCell fuel cell stack technology with the industrialized supply chain and lifecycle services from Bosch.

It is well to be noted that this deal is a strategic milestone indeed for PowerCell. The Gothenburg-based company, split from Volvo Group and listed on Nasdaq Stockholm, has historically concentrated on marine, aviation, and transport applications. The CSC-1 project confirms stationary power generation as a second primary business vertical and illustrates the commercial feasibility of industrializing fuel cell technology along with digital energy orchestration software.

The order also features Distributed Master Controller licenses, which will unlock periodic software, service, and lifecycle revenues throughout the operational life of the systems, which is a model that might enhance revenue visibility beyond one-time hardware sales.

Timing is important. The stock of PowerCell has been struggling this year, with a year-to-date fall of 33.13% as of the announcement.  The company is currently valued at around SEK 1.16 billion by market standards and has a daily trading volume of about 349,765 shares. Sentiment indicators are emitting a strong sell technical alert as part of wider market skepticism toward hydrogen technology names due to high interest rates as well as slow adoption curves.

Meanwhile, ECL is billing itself as a next-generation data-center provider built for AI. The FlexGrid architecture of the company optimizes for cost, carbon intensity, and dependability by balancing multiple power sources – be it grid, batteries, or natural gas as well as hydrogen and that too in real time. A test case for how far hydrogen can move past niche sustainability plays into mainstream usage as a data center power solution is the 35 MW CSC-1 campus in Santa Clara.

The background is a power squeeze in key data center markets that is spreading fast. AI inference and training workloads use far more electrical power compared to traditional cloud computing, straining grids in hubs like Northern Virginia and Silicon Valley as well as Phoenix. Utilities are finding it difficult to obtain new generation and transmission capacities online quickly enough, creating a market for on-site, readily available clean power solutions.

Hydrogen fuel cells offer a host of theoretical benefits in this context, as they can run uninterruptedly compared to solar and wind and they have zero on-site emissions. They can be installed without the multi-year interconnection waiting periods that hinder grid-dependent projects. The problem has been cost when it comes to the fuel cells themselves as well as the supply of green hydrogen.

The PS190 system from PowerCell is a containerized solution for megawatt-scale applications that are stationary. The company manufactures its own fuel cell stacks along with systems in-house, focusing on sectors like off-road and on-road transport, aviation, marine, and rail as well as power generation.

While not legally binding, the MoU for 300 MW suggests that ECL sees a feasible pathway to expand hydrogen power across several campuses. A build-out of this nature, if it happens in the years to come, would be a step change in customer demand for PowerCell’s technology and could change the competitive environment for data centre backups and primary power, which is presently dominated by diesel generators as well as natural gas turbines.

The fact is that the hydrogen data center market is still in its infancy, say industry watchers. Fuel cell costs have to keep declining, and the green hydrogen production and distribution infrastructure is nascent, especially in the US. Clean hydrogen production tax credits under the Inflation Reduction Act might be beneficial, but final rules have been subject to regulatory ambiguity.

But with a firm order, an operational reference site, as well as the manufacturing backing of Bosch, the PowerCell-ECL collaboration has greater substance than a lot of hydrogen announcements in the data center space, which often have been just feasibility analyses or small pilot projects.

The deal also speaks to a larger pattern as hyperscale cloud providers and colocation operators become more inclined to experiment with novel power technologies as AI workloads alter their energy profiles. Microsoft, Google, Amazon, and Meta said they were investing in advanced clean energy, such as nuclear and geothermal, along with hydrogen, for their own fleets of data centers.

The SEK 30 million order is immediately financially material for investors, but it is small as compared to PowerCell’s market cap. The bigger question is whether CSC-1 and the 300 MW MoU are indicative of a true commercial revolution for hydrogen in data centers or just another turning point in a long, storied history of hydrogen promises that have yet to be fully realized.

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The partners seek to speed up the advancement of technology, testing, design, and certification of a groundbreaking hydrogen-based fuel cell propulsion system for aviation via the creation of an exclusive and extremely flexible organizational setup. Airbus and MTU will assist the newly formed company with all their skills and via multiple engineering and manufacturing teams from both organizations.

This non-binding agreement is contingent upon normal regulatory permits and the finalization of social processes at both the European as well as national levels. The new joint venture is scheduled to go live in 2027.

According to the head of Airbus Future Programmes, Bruno Fichefeux, “Our planned joint venture is the next logical step in our shared vision of a hydrogen-based propulsion concept for aviation. By pooling our respective technology and expertise into a dedicated entity, we are establishing a European powerhouse capable of transforming advanced research into industrialized, certifiable electric propulsion systems. This new company will help secure strategic sovereignty in the next generation of aviation technologies while strengthening our ability to achieve the long-term ZEROe ambition.”

According to the SVP of Engineering and Technology at MTU Aero Engines, Dr. Stefan Weber, “Our ambitious goal is to pave the way for a newly developed, safe, reliable, and economical propulsion system that will contribute to climate-neutral aviation. This project is a crucial milestone on our path to the first hydrogen-powered engine – and this is true European technology leadership. To that end, we want to create a company that covers the entire life cycle of fuel cell powertrains – from development and testing through certification to commercialisation.”

It is well to be noted that hydrogen has what it takes to make a significant contribution in terms of diminishing the climate impact when it comes to aviation in the long term and to also make adequate transformation in air transport in a much similar way to the effect of electric vehicles when it comes to the automotive sector.

The joint venture is based on the common goal of both partners to establish a technology leader in this domain and bring the first hydrogen-based fuel cell propulsion system to a commercial plane. It will pair the extensive experience of commercial aircraft programmes, substantial fuel cell propulsion as well as liquid hydrogen experience by Airbus with multi-year development of fuel cell technology along with its acknowledged engine design, standard integration, validation and certification, and maintenance experience of MTU.

In addition to the engine technologies, both Airbus and MTU will keep pushing for the development of a hydrogen aviation economy and the corresponding regulatory framework, which also serve as crucial enablers for the emergence of hydrogen-powered flight at a global level.

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The system is made up of three modular hexagonal floating platforms, spanning a combined 12,900-square-foot area. The platforms include approximately 45MWh of battery energy storage, modular fuel cell systems, hydrogen-based generation, onboard renewable energy sources and advanced grid-forming AC/DC electrical architecture to deliver power directly to vessels.

The concept was validated in a six-month programme delivered in partnership with the UK Shipping Office for Reducing Emissions under the UK Research and Innovation Clean Maritime Demonstrator Competition Round 6. The work involved hydrodynamic, structural, electrical and operational testing.

Partners say the project showed that current hydrogen, battery, fuel-cell and electrical technologies can be combined into a modular floating system capable of providing power to large ships while they are docked and deployed at ports around the world.

Tackling bottlenecks in port electrification with 5MW output

This first grid-independent 45MWh hydrogen power hub in the world is intended for large-scale maritime operations and can provide up to 5 MW of continuous clean power directly to vessels in berth. The system is capable of handling both 6.6kV and 11kV shore power hook-ups and has sufficient capacity to support medium-sized cruise ships and other power-hungry maritime assets.

The project aims to address one of the biggest challenges of decarbonising ports: availability of reliable electrical infrastructure. Limited grid capacity, long utility connection timelines, space constraints, complex permitting requirements and high costs associated with conventional shore-side power installations have left many ports still struggling to deploy shore power at scale.

The floating platform’s independence from existing grid infrastructure provides ports with an alternative route to reducing vessel emissions. Instead of building big infrastructure on land, it is built in the water itself, on a floating platform. Traditional shore power projects can take three to seven years or more to complete and often require substation upgrades, grid reinforcement, significant civil works and lengthy permitting processes. The system could offer ports a quicker way to reduce emissions by sidestepping many of these requirements.

The consortium claims that the platform is capable of delivering approximately 91MWh of energy per week and can support repeated vessel charging operations. The design aims to reduce the need for major construction projects, land reclamation work or expensive upgrades to existing electrical infrastructure.

Less reliance on permanent port fuel infrastructure

The platform consumes approximately 16,500 to 17,600 pounds of hydrogen each week to keep it operational, stored in modular, ISO-compatible low-pressure containers integrated into the floating structure. The approach aims to simplify fuel logistics and maintain flexibility for diverse port environments.

Right now, it has seven onboard hydrogen storage tanks and is expected to refuel about twice a week. “This setup allows ports to start deploying hydrogen-powered shore power systems without first investing in permanent hydrogen infrastructure, potentially lowering barriers to adoption in the early stages of implementation,” said the project team.

The system uses 1.3MW modular fuel cells to continuously charge onboard batteries as opposed to relying on large generators, allowing energy to be delivered quickly when ships connect at berth. It also provides 146kW of onboard solar capacity to help reduce hydrogen consumption.

Further testing by the University of Strathclyde confirmed the platform’s stability, structural performance, motion characteristics and multi-platform connectivity in various sea conditions, attesting to its feasibility for long-term maritime operations.

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Toyota Motor North America, in collaboration with Hyroad Energy, has finalized an agreement to introduce 40 hydrogen fuel-cell Class 8 trucks to Southern California’s logistics landscape. This significant development, announced at ACT Expo 2026 in Las Vegas, underscores a growing commitment to advancing the hydrogen economy. The partnership aims to streamline operations by integrating vehicles, software, and fuel supply into a comprehensive commercial framework.

Hyroad Energy will be responsible for providing the fleet of hydrogen fuel-cell Class 8 trucks, alongside essential maintenance, data, and software services to support Toyota’s logistical needs. Complementing this, Toyota will ensure the availability of hydrogen fuel through refuelling infrastructure currently under development in Ontario, California. This unified approach is designed to accelerate the adoption of hydrogen technology within the heavy-duty sector.

“Accelerating the hydrogen economy requires collaboration, and Toyota is proud to work with Hyroad to move the heavy-duty sector forward,” stated Jason Zahorik, general manager of Toyota Hydrogen Solutions. The companies highlighted that hydrogen fuel-cell Class 8 trucks offer substantial advantages, including a refuelling time of approximately 15 to 20 minutes and a substantial operating range of up to 500 miles. Crucially, these vehicles produce only water vapor as local emissions, aligning with zero-emission trucking goals.

Hyroad Energy’s operational model is built around a unified service offering that bundles trucks, maintenance, and fleet management software. As an OEM-agnostic operator, Hyroad is positioned to integrate vehicles from various manufacturers with hydrogen supply, maintenance, and software solutions. Following its acquisition of 117 hydrogen fuel-cell trucks, spare parts, software platforms, and intellectual property from Nikola Corporation in August 2025, Hyroad has expanded its service portfolio to include maintenance, repair services, and parts support for existing truck operators.

“Toyota has done exactly what great allies do — they’ve brought genuine hydrogen expertise to the table and made thoughtful, strategic decisions,” commented Dmitry Serov, founder and CEO of Hyroad Energy, underscoring the collaborative nature of this venture towards advancing hydrogen trucks California operations.

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