Articles tagged with "hydrogen-fuel"
World-first hydrogen drone with 'negligible' heat signature deployed
Ukraine has deployed a world-first hybrid hydrogen-powered drone, a modified version of Skyeton’s Raybird, in an active combat zone for reconnaissance missions. Unlike the standard Raybird, which uses an internal combustion engine (ICE) and can fly for over 28 hours, the hydrogen-electric variant offers a flight endurance of 12 hours (with plans to increase to 20 hours) and features a significantly lower heat signature. This reduced thermal footprint, due to the electric motor generating less heat than an ICE, makes the drone especially suited for stealthy surveillance in hostile environments. The redesigned Raybird incorporates hydrogen cartridges to power electric motors, providing quieter operation, higher operational altitude, and environmental benefits. The drone weighs 51 pounds, has a 15-foot wingspan, and can carry a payload of about 22 pounds, including radar and surveillance sensors. Skyeton spent two years in research and development to address challenges such as climate resilience and hydrogen logistics, resulting in a reliable platform that balances long-duration flight
dronehydrogen-fuelelectric-propulsionenergy-efficiencyreconnaissance-technologyUAVhybrid-power-systemsNew breakthrough could make ‘green’ hydrogen cheaper, faster to produce
A Ph.D. candidate, Yukihiro Takahashi, at the Norwegian University of Science and Technology (NTNU) has developed a novel method to improve the production of green hydrogen by controlling nickel growth on electrodes used in alkaline water electrolysis (AWE). Nickel coatings on metal plates serve as catalysts in electrolysers, but conventional electroplating methods often result in uneven coatings, leading to wastage, thicker layers, and higher costs. Takahashi introduced complexing agents that bind nickel ions more evenly and slow excessive deposition, enhancing coating uniformity and durability. This advancement was guided by predictive mathematical modeling that simulates nickel behavior under varying conditions, enabling better control before manufacturing. This breakthrough could significantly reduce the cost and improve the efficiency and reliability of green hydrogen production, which is currently expensive and limited in scale despite its potential as a clean alternative to fossil fuels. By improving manufacturing consistency and reducing material waste, the method promises faster optimization and energy savings. Beyond hydrogen electrolysers, the
energygreen-hydrogenelectrolysisnickel-coatingrenewable-energyhydrogen-fuelenergy-storageCambridge reactor shows 99% gas recycling can deliver hydrogen fuel
Researchers at Cambridge University have developed a breakthrough methane pyrolysis reactor that simultaneously produces high-quality carbon nanotubes (CNTs) and clean hydrogen fuel without emitting carbon dioxide. By operating the reactor at 2372°F (1300°C) and employing a multi-pass system that recycles 99% of the methane gas, the team significantly improved efficiency compared to traditional single-pass floating catalyst chemical vapor deposition (FCCVD) methods. This approach enhances carbon nanotube production by over eightfold and achieves a 446-fold increase in molar process efficiency, meaning the system uses gas molecules far more effectively. The multi-pass reactor loops methane gas through the pyrolysis process multiple times until nearly all methane is converted into CNTs and hydrogen in a 3:1 ratio, eliminating the need for additional hydrogen input and reducing waste. The researchers also demonstrated the reactor’s ability to process a methane and carbon dioxide mixture, simulating biogas plant output, indicating potential for sustainable fuel and material production. These findings, published
energyhydrogen-fuelcarbon-nanotubesmethane-pyrolysisclean-energymaterials-sciencereactor-technologyHydrogen for Transportation Didn’t Fail Just Once in 2025. It Failed Everywhere. - CleanTechnica
In 2025, hydrogen as a transportation fuel experienced widespread and coordinated setbacks across multiple sectors worldwide, marking a significant shift from future potential to practical retreat. This decline was evident in light-duty vehicles, heavy trucks, buses, trains, mining equipment, refueling infrastructure, and even aviation. Rather than isolated pilot failures, these withdrawals reflected operational realities overriding ideological support. For light-duty vehicles, demand for hydrogen collapsed, exemplified by the French hydrogen taxi company Hype abandoning hydrogen in favor of battery electric vehicles and global fuel cell car sales plummeting outside South Korea, where subsidies artificially sustained the market. Hydrogen refueling stations closed across major regions, and automakers quietly ceased marketing fuel cell cars, with a notable absence of new fleet commitments signaling the sector’s decline. Heavy trucks, once considered hydrogen’s strongest application due to long distances and heavy payloads, also saw a reversal. Fuel cell truck sales declined globally while battery electric trucks surged, particularly in China, where fleets widely adopted electric models for
energyhydrogen-fueltransportationfuel-cellselectric-vehiclesheavy-trucksclean-energyWhy Hydrogen Transit Often Emits More Than Diesel Once You Count Everything - CleanTechnica
The article from CleanTechnica highlights a critical issue with hydrogen transit systems: while hydrogen fuel cell buses emit only water vapor at the tailpipe and are often labeled as zero-emission vehicles, their full lifecycle emissions—including hydrogen production, processing, transport, storage, refueling, and leakage—can be comparable to or even exceed those of diesel buses. This discrepancy arises because hydrogen is not a naturally occurring fuel and requires energy-intensive manufacturing, often from carbon-intensive electricity grids. The common practice of focusing solely on tailpipe emissions has led to a misleading perception of hydrogen transit as a climate-friendly solution, influencing policy, funding, and public messaging without accounting for upstream emissions. The article further explains that the carbon intensity of the electricity used for electrolysis is a major factor in hydrogen’s overall emissions. On grids dominated by fossil fuels, hydrogen production can result in well-to-wheel emissions several times higher than diesel. For example, electrolysis powered by electricity with 400 to 700 g CO2e per k
energyhydrogen-fueltransit-emissionsclean-energyfuel-cellselectrolysiscarbon-footprintFrom HyHaul To China: Why Hydrogen Transport Keeps Losing - CleanTechnica
The article examines the repeated failures of hydrogen transport initiatives, using the UK’s HyHaul project as a recent example. HyHaul was promoted as the UK’s first significant hydrogen freight corridor, supported by government funding and industrial partners, with plans for hydrogen refueling stations and fuel cell trucks. However, it never secured binding commercial commitments from fleet operators, failed to finalize investments in infrastructure, and did not deliver vehicles at scale. By late 2025, the project quietly ended without dramatic collapse, reflecting a common pattern among hydrogen transport efforts that fail not due to technological issues but because they are not competitive, financeable, or scalable. The author tracks 171 hydrogen transport firms and projects, noting a 36% attrition rate due to companies exiting the sector, ceasing operations, or abandoning strategies. Many firms, including notable ones like Plug Power and Fuel Cell Energy, face severe financial distress. Failures often occur quietly, with parent companies shelving hydrogen programs without formal shutdowns to manage reput
energyhydrogen-fuelhydrogen-transportfuel-cellsclean-energydecarbonizationsustainable-transportationWhy Simple Fuels Win at Sea: Assessing LNG SOFCs, Hydrogen, Sails, and CCS Against Practical Needs - CleanTechnica
The article critically examines the practicality of using Bloom Energy’s solid oxide fuel cells (SOFCs) running on LNG for maritime propulsion, alongside other alternatives like hydrogen, sails, and carbon capture and storage (CCS). It emphasizes the unique and demanding operational environment of ships, which require continuous, reliable power with high power density in confined spaces that also accommodate cargo and crew. The maritime industry’s existing propulsion technologies—such as dual-fuel LNG engines, methanol engines, hybrid electric systems, and energy storage—are evolving to meet these needs, while wind assistance remains limited due to operational constraints. Bloom’s SOFCs, despite being marketed as highly efficient electrical generators, face significant challenges for maritime use. These fuel cells operate at high temperatures (~800°C), producing about 325 kW per 15-ton module, which is bulky relative to output and generates substantial heat that complicates thermal management in tight ship engine rooms. Additionally, the modules degrade relatively quickly, with median replacement cycles around five
energymaritime-propulsionsolid-oxide-fuel-cellsLNGhydrogen-fuelclean-energymaritime-technologyWhat Ottawa Can Learn From Hydrogen Transit Failures Across Canada and Beyond - CleanTechnica
The article discusses Ottawa’s current transit challenges, emphasizing the critical decisions facing OC Transpo as it seeks to replace its aging diesel fleet amid budget constraints and recovering ridership. With about 30 battery electric buses currently in service and a strong focus on high-capacity electric buses to improve service frequency and reliability, Ottawa is navigating limited Canadian experience with such vehicles. The debate over propulsion technologies is framed not as an abstract choice but as one directly impacting service quality, maintenance, costs, and the city’s ability to support growth. Hydrogen buses have re-emerged in Ottawa’s transit discussions, prompting concern from local electric vehicle advocates and experts who argue that hydrogen technology is uneconomic, operationally challenging, and environmentally problematic. The article’s author, invited to address the Transit Commission, presented evidence from credible sources—including US Department of Energy reports, European studies, and peer-reviewed research—highlighting hydrogen’s high costs, maintenance difficulties, low vehicle availability, fragile refueling infrastructure, rapid fuel cell degradation, and
energyhydrogen-fuelelectric-busespublic-transitsustainable-transportationclean-energybattery-electric-vehiclesHow engineers plan world's first hydrogen-powered hypersonic jet
The article discusses the development of the world’s first hydrogen-powered hypersonic jet, highlighting the efforts of Hypersonix Launch Systems, a Brisbane-based aerospace startup. Building on the legacy of the SR-71 Blackbird, the new generation of hypersonic aircraft aims to achieve sustained speeds of Mach 5 to Mach 12 using hydrogen-fueled scramjet engines. Hypersonix’s Spartan scramjet engine, entirely 3D-printed from high-temperature alloys, is designed for efficiency and thermal resilience at these extreme speeds. Their 11.5-foot DART AE demonstrator, scheduled for a test flight from NASA’s Wallops Flight Facility, seeks to prove the viability of green hydrogen as a clean, high-energy fuel for hypersonic propulsion, potentially transforming both military and civilian aviation. This development is part of a broader global race in hypersonic technology, driven by strategic defense competition involving the US, China, Russia, and European entities. While other companies and agencies
energyhydrogen-fuelhypersonic-flightaerospace-engineeringscramjet-enginessustainable-fuelsadvanced-manufacturingA Continent Steps Away From Hydrogen Transport. Spain Doubles Down. - CleanTechnica
The European Commission recently approved funding for 38 new hydrogen refueling stations across Europe, with a striking majority—about 80%—allocated to Spain. This move positions Spain as the primary driver of hydrogen transport infrastructure on the continent, even as the broader European hydrogen network is contracting. While the EU committed over €600 million to various transport decarbonization projects, including electric charging corridors and rail upgrades, the hydrogen station investment—estimated between €170–190 million—stands out as an exception amid a general retreat from hydrogen mobility in Europe. Across much of Europe, hydrogen refueling stations are closing due to low usage and unsustainable economics. Countries like Austria, Germany, Denmark, Norway, the UK, and France have seen significant reductions in operational hydrogen stations, with many remaining sites operating at minimal throughput. This decline is attributed to structural challenges: hydrogen stations require high vehicle volumes to cover costs, but the expected fleet growth has not materialized. This trend is mirrored globally, with China experiencing
energyhydrogen-fueltransport-decarbonizationalternative-fuels-infrastructureEU-fundinghydrogen-refueling-stationsclean-energy-transportNew battery system brings clean hydrogen cooking to rural Africa
Researchers at Loughborough University in the UK have developed a containerized battery electrolyzer system aimed at providing clean, sustainable energy to remote African communities. The system stores electrical energy in batteries and produces hydrogen through electrolysis, using electricity generated from solar panels to split water into hydrogen and oxygen. The hydrogen is then compressed and stored for use, primarily as a clean cooking fuel. This pilot project will initially be deployed at a school in Zambia, where the system will supply electricity for lighting and power, as well as hydrogen for cooking, replacing traditional biomass fuels that contribute to deforestation and indoor air pollution. The project addresses critical issues of energy poverty and health risks in sub-Saharan Africa, where reliance on biomass fuels leads to environmental degradation and premature deaths, especially among women and children. The hydrogen produced burns cleanly, emitting only water vapor, offering a sustainable alternative to polluting fuels. The system is highly scalable, capable of meeting various power demands, and can provide essential services such as lighting for schools
energyclean-energyhydrogen-fuelbattery-electrolyzerrenewable-energysustainable-cookingenergy-storageHydrogen Dreams, Fiscal Nightmares: South Korea’s Stubborn Bet on FCEVs - CleanTechnica
The article "Hydrogen Dreams, Fiscal Nightmares: South Korea’s Stubborn Bet on FCEVs" from CleanTechnica highlights the sharp global decline in hydrogen fuel cell vehicle (FCEV) sales in 2025, with fewer than 9,000 units sold worldwide in the first nine months—a drop from nearly 10,000 in the same period of 2024. China, once a major market for hydrogen buses and trucks, experienced a 45% sales collapse. In contrast, South Korea is the only country showing an increase in hydrogen car sales, largely driven by Hyundai’s updated Nexo model, which accounted for over half of global FCEV sales in 2025. However, despite this growth, Nexo sales in South Korea remain small compared to battery-electric vehicles (BEVs), with about 3,500 Nexos sold versus 120,000 BEVs in the same period. The article argues that South Korea’s hydrogen vehicle market growth is not due
energyhydrogen-fuelfuel-cell-vehiclesSouth-KoreaHyundai-Nexoclean-energysubsidiesUS-backed world’s first hydrogen-powered jet could fly at Mach 12
Australia’s Hypersonix Launch Systems is developing the world’s first reusable, hydrogen-fueled hypersonic aircraft capable of flying at speeds up to Mach 12, or twelve times the speed of sound. The Brisbane-based company recently secured $46 million in Series A funding from a mix of Australian sovereign investors—including the National Reconstruction Fund Corporation (NRFC) and Queensland Investment Corporation (QIC)—as well as international defense investors such as UK’s High Tor Capital, European defense firm Saab, and Polish group RKKVC. This investment supports Australia’s strategic goal to build sovereign aerospace manufacturing capabilities and advance hypersonic flight technology with a focus on sustainability and national security. At the core of Hypersonix’s technology is the SPARTAN scramjet engine, a fully 3D-printed, air-breathing engine that runs on green hydrogen instead of kerosene, enabling zero-carbon emissions and reusable, low-maintenance hypersonic flight. Founded in 2019 by former
energyhydrogen-fuelhypersonic-aircraftaerospace-manufacturingsustainable-aviationdefense-technologyadvanced-propulsionNorway's Ferry Operator Norled Could Have Saved Money & Staff by Skipping Hydrogen - CleanTechnica
Norled, a major Norwegian ferry operator, has incurred losses of approximately €85 million over two years, largely due to its investment in hydrogen-powered ferries rather than battery-electric alternatives. The company’s MF Hydra, launched in March 2023 as the world’s first liquid hydrogen ferry, operates a short route typical of Norway’s ferry network. While Norway has successfully electrified many routes using battery ferries powered by clean hydroelectricity, Norled chose a costly and complex hydrogen system involving cryogenic storage, fuel cells, and long-distance liquid hydrogen supply from Germany. The MF Hydra’s construction cost was about €29 million, significantly higher than comparable battery-electric (€20 million) or diesel (€14 million) ferries, and its fuel and infrastructure expenses are substantially greater. Economically and environmentally, the hydrogen ferry underperforms. It consumes around 4 tons of liquid hydrogen biweekly at a delivered cost of €13–14/kg, resulting in an annual fuel cost of about €1.
energyhydrogen-fuelbattery-electric-ferryzero-emission-shippingliquid-hydrogenfuel-cellsrenewable-energyGreen Shipping Fuel Producers Call on IMO to Seize "Once-in-a-Generation" Opportunity - CleanTechnica
A coalition of 27 leading green fuel producers, including European Energy, Liquid Wind, ET Fuels, HIF Global, and Zero Waste, is urging the International Maritime Organization (IMO) to adopt its recently agreed Net Zero Framework (NZF) and to implement specific incentives for green hydrogen-based e-fuels. These producers emphasize that e-fuels offer significantly greater emissions reductions compared to alternatives like LNG and first-generation biofuels, yet currently face a competitive disadvantage due to a lack of targeted policy support. The group highlights the global scope of their projects, spanning Africa, the Americas, Europe, South Asia, and Oceania, underscoring the broad potential impact of supportive IMO policies. Dr. Alison Shaw, IMO manager at Transport & Environment (T&E), stressed the need for policy certainty to enable the scaling of green shipping fuels. She warned that without dedicated incentives, the energy transition in shipping risks stalling, as e-fuels compete against cheaper but less sustainable options such as fossil gas
energygreen-fuele-fuelsIMO-Net-Zero-Frameworkhydrogen-fuelsustainable-shippingdecarbonizationToshiba’s superconducting motor boosts hydrogen-powered flight future
Toshiba and Airbus have launched a joint research initiative to develop superconducting motor technology for hydrogen-powered aircraft. Central to this collaboration is Toshiba’s 2-megawatt prototype superconducting motor, completed in 2022, which is notably compact and lightweight—about one-tenth the weight of conventional motors with similar output. This high power-to-weight ratio is crucial for aviation, where reducing weight directly impacts efficiency and feasibility. The motor is intended for electric propulsion systems where hydrogen fuel cells generate electricity to power the superconducting motors, differing from traditional hydrogen combustion engines. A key innovation in this research is leveraging the cryogenic properties of liquid hydrogen fuel, stored onboard at −253°C, to simultaneously serve as the coolant for the superconducting motor. This dual-use approach could eliminate the need for separate cooling systems, significantly enhancing overall efficiency and potentially extending flight range. While still in early stages, the technology shows promise not only for aviation but also for maritime and space applications. The joint effort aims to
energysuperconducting-motorhydrogen-fuelelectric-propulsionaviation-technologyToshibaAirbusSeawater to be turned into fuel to power ships, reduce carbon emission
Researchers at Brunel University of London, in collaboration with the company Genuine H2, have developed a technology to convert seawater into hydrogen fuel to power ships and other forms of transport, aiming to eliminate diesel use and reduce carbon emissions. The process involves splitting seawater using renewable electricity to produce hydrogen gas, which is then stored onboard ships as a molecular solid and burned in engines that emit only steam, thus providing a clean energy alternative. This innovation includes carbon-negative electrolysis units that also extract CO2 from water to create bicarbonates, contributing to a circular and environmentally friendly energy cycle. The technology is scalable and versatile, capable of fueling various transport modes such as yachts, ferries, airplanes, trains, and trucks, as well as supporting infrastructure like hydrogen refueling stations for both land and marine applications. A key breakthrough includes electrodes that extract hydrogen directly from seawater without the need for desalination, and a nano film that safely stores hydrogen at room temperature without requiring heavy pressurized tanks. The project
energyhydrogen-fuelclean-energyseawater-electrolysiscarbon-emission-reductionrenewable-energygreen-technologyUK: World’s first hydrogen-run digger marks carbon-neutral milestone
The UK’s £10 billion Lower Thames Crossing project has become the nation’s first major infrastructure development to commit to carbon-neutral construction, marked by the deployment of the world’s first hydrogen-powered digger on site in Kent. This British-made JCB backhoe loader, operated by Skanska and fueled by hydrogen supplied by Ryze, is the first hydrogen-fueled internal combustion engine machine used outside a test environment. In its first month, the digger has already reduced CO₂ emissions by over 1.1 US tons, supporting National Highways’ broader goal to eliminate diesel machinery from worksites by 2027. This initiative is backed by the UK’s largest-ever purchase of green hydrogen for construction. The Lower Thames Crossing aims to reduce its construction carbon footprint by 70% through the use of low-carbon materials such as steel and concrete, alongside innovative building methods, with any remaining emissions to be offset by the early 2030s. The project, which received planning permission in March
energyhydrogen-fuelcarbon-neutral-constructiongreen-hydrogenlow-carbon-materialsconstruction-machinerysustainable-infrastructureMIT filter resists 1,000 Kelvin heat to cut hydrogen production cost
MIT engineers have developed a novel palladium-based membrane filter that can withstand temperatures up to 1,000 kelvins, significantly surpassing the 800-kelvin limit of conventional palladium membranes used in hydrogen production. Palladium is prized for its ability to selectively allow hydrogen molecules to pass while blocking other gases, a critical function in hydrogen fuel generation. The breakthrough comes from redesigning the membrane’s structure: instead of a continuous palladium film that degrades at high heat, the new membrane features palladium deposited as “plugs” within the pores of a silica support. This plug design prevents the metal from shrinking or clumping under extreme temperatures, maintaining stability and hydrogen separation efficiency even after 100 hours of testing at 1,000 kelvins. This enhanced thermal resilience—an improvement of about 200 kelvins—makes the membrane particularly suitable for high-temperature hydrogen-generating processes like steam methane reforming and ammonia cracking, which are essential for producing zero-carbon fuel and electricity
energyhydrogen-productionpalladium-membranehigh-temperature-materialshydrogen-fuelenergy-technologymaterial-scienceRecord hydrogen fuel recipe cooked by US scientists to power trucks
US scientists at Brookhaven National Laboratory have developed a novel hydrogen fuel cell catalyst that significantly enhances performance and durability, potentially enabling practical use in heavy-duty vehicles such as trucks and buses. The catalyst features a nitrogen-doped high-entropy intermetallic core composed of platinum (Pt), cobalt (Co), nickel (Ni), iron (Fe), and copper (Cu), encapsulated by a single-atom-thick platinum shell. This atomic-scale engineering introduces sub-angstrom distortions in the catalyst’s structure, strengthening metal-nitrogen bonds and improving both reactivity and resilience under harsh operating conditions. Tested under rigorous simulations mimicking heavy-duty truck use, the new catalyst endured over 90,000 operating cycles—equivalent to 25,000 hours of continuous operation—while surpassing current Department of Energy (DOE) performance targets. This breakthrough addresses a key challenge in fuel cell technology: creating catalysts durable and efficient enough for demanding commercial transport applications. The research demonstrates a practical pathway toward widespread adoption
hydrogen-fuelfuel-cellscatalystsenergy-storageheavy-duty-vehiclesplatinum-catalystBrookhaven-National-LaboratoryFrom Hype to Shutdown: Europe’s Hydrogen Refueling Network Shrinks - CleanTechnica
The article from CleanTechnica details the significant contraction of Europe’s public hydrogen refueling network, highlighting Austria and Germany as key examples. Austria’s OMV, which operated all four of the country’s public hydrogen stations, announced closures by September 2025, effectively ending public access to hydrogen refueling in Austria. Meanwhile, Germany, once a leader in hydrogen infrastructure with nearly 100 stations, is closing 22 stations in 2025 due to low demand and poor economics. These closures primarily affect smaller stations in cities with minimal usage, reflecting a shift away from hydrogen cars, which remain rare and mostly limited to fleets or demonstration projects. The decline in hydrogen refueling infrastructure is attributed to a mismatch between early optimistic forecasts and actual market adoption. Despite substantial government and industry investment, the number of fuel cell vehicles remains low, making it financially unsustainable to maintain many stations. Fixed costs such as equipment maintenance and safety inspections persist regardless of usage, leading operators to consolidate the network around fewer, larger stations
energyhydrogen-fuelhydrogen-refueling-stationsclean-energyfuel-cell-vehiclesEurope-energy-transitionsustainable-transportation110 MW: China rolls out giant gas turbine to power 3.6 million homes
China has introduced its first domestically developed 110-megawatt heavy-duty gas turbine, the Taihang 110 (AGT-110), marking a significant advancement in the country’s industrial capabilities. Developed by the Aero Engine Corporation of China (AECC), this turbine features multi-fuel capability, operating on oil, natural gas, and medium-to-low calorific gases, and is designed for combined heat and power generation, natural-gas peaking plants, and combined-cycle power stations. The AGT-110 boasts rapid start-up, high combined-cycle thermal efficiency, and low maintenance needs. It can integrate with renewable energy sources like wind, solar, and hydropower, and is expected to reduce carbon emissions by over 1 million tons annually compared to similar-capacity thermal units. The turbine’s output can supply electricity to between 10,000 and 15,000 households daily. The development of the Taihang 110 represents a major industrial milestone for China, demonstrating breakthroughs in turbine
energygas-turbinecombined-cycle-powercarbon-emissions-reductionhydrogen-fueladvanced-materialspower-generationThe Great Hydrogen Fleet Flip: Nikola’s Collapse Fueled A New Subsidy Play - CleanTechnica
The article "The Great Hydrogen Fleet Flip: Nikola’s Collapse Fueled A New Subsidy Play" from CleanTechnica examines how former Nikola executives have reemerged through Hyroad Energy to continue pursuing hydrogen trucking ventures despite Nikola’s bankruptcy. These executives, who previously secured hundreds of millions in grants and investments for Nikola’s hydrogen truck ambitions, are now acquiring subsidizable hydrogen assets at steeply discounted prices. They repackage these assets as part of a new “fleet transformation” narrative to tap into fresh public funding, even though the fundamental technical challenges, high costs, and limited market demand that doomed Nikola remain unresolved. Hyroad Energy, prior to acquiring Nikola’s assets, had received over $9 million from Texas’s THIVE program to deploy hydrogen Class 8 trucks but had no public record of operating such vehicles. The Nikola assets, originally valued at over $50 million, sold for less than 8% of that amount, highlighting the lack of a viable secondary market for hydrogen trucks. The article
energyhydrogen-fuelclean-energytruckingsubsidiesdecarbonizationfleet-transformationElectrolyte highway breakthrough unlocks affordable low-temperature hydrogen fuel
Researchers at Kyushu University in Japan have developed a novel solid-oxide fuel cell (SOFC) that operates at a significantly reduced temperature of 300℃ (500°F), compared to the conventional 700-800℃ (1292-1472°F). This breakthrough was achieved by re-engineering the fuel cell’s ceramic electrolyte, which transports protons to generate electricity. By doping barium stannate (BaSnO3) and barium titanate (BaTiO3) with high concentrations of scandium, the team created a “ScO₆ highway” — a wide, softly vibrating pathway that facilitates efficient proton movement without the typical trapping issues seen in heavily doped oxides. This innovation results in proton conductivity comparable to traditional SOFCs but at much lower temperatures, potentially reducing manufacturing costs and enabling more affordable, consumer-level hydrogen fuel cells. The implications of this advancement extend beyond SOFCs, offering a new design principle for creating efficient ion pathways in various energy technologies
energyhydrogen-fuelsolid-oxide-fuel-cellelectrolytelow-temperature-SOFCproton-conductivitymaterials-scienceShipping's Climate Reckoning: The IMO’s $36 Billion Pivot - CleanTechnica
The article discusses the International Maritime Organization’s (IMO) recent decision to implement carbon pricing on shipping fuels, marking a significant $36 billion shift toward decarbonizing the shipping industry. Tristan Smith, director of UMAS and a professor at University College London, provides expert insight into the complex and uncertain landscape of maritime decarbonization. He highlights the industry's struggle to identify a clear dominant alternative fuel, noting that once-promising options like LNG, methanol, and hydrogen have lost favor due to cost and feasibility concerns. The nuclear option has also resurfaced, but consensus on the best path forward remains elusive. Smith emphasizes that the future fuel pathway will largely depend on current choices made by the shipping sector, as the types of ships built will influence fuel production infrastructure development. This creates a feedback loop where fleet decisions and fuel availability shape each other. Many industry players are hesitant to commit to a specific fuel type without clearer evidence of supply infrastructure, leading some to hope biodiesel might fill the gap despite
energymaritime-decarbonizationshipping-industrycarbon-pricingclean-fuelshydrogen-fuelsynthetic-fuelsFinal GOP bill kneecaps renewables and hydrogen, but lifts nuclear and geothermal
The recently passed Republican reconciliation act, approved by a narrow 218-214 vote and awaiting President Donald Trump’s expected signature, significantly rolls back key provisions of the Inflation Reduction Act (IRA) related to clean energy incentives. The bill reduces or eliminates tax credits for solar, wind, and clean hydrogen projects, while preserving some benefits for nuclear, geothermal, and battery storage technologies through 2033. Solar and wind developers must now either connect projects to the grid by the end of 2027 or begin construction within 12 months of the bill’s passage to qualify for tax credits, tightening timelines compared to previous legislation. This shift is likely to impact sectors reliant on rapid deployment of renewable energy, such as data centers and climate tech startups, with green hydrogen companies facing particularly steep challenges as their tax credits are set to expire by 2027—five years earlier than under the IRA. While geothermal, nuclear, and battery storage incentives remain largely intact, new restrictions related to “foreign entities of concern” could
energyrenewable-energyclean-energynuclear-powergeothermal-energyhydrogen-fuelenergy-policyHydrogen fuel breakthrough may replace diesel in heavy transport
Researchers at Linköping University in Sweden have developed a novel three-layer solar material that significantly enhances hydrogen production through water splitting, potentially enabling hydrogen to replace diesel in heavy transport sectors where batteries are impractical. The material combines cubic silicon carbide (3C-SiC), cobalt oxide (Co₃O₄), and a nickel hydroxide (Ni(OH)₂) catalyst layer, achieving an eightfold increase in solar hydrogen output compared to 3C-SiC alone. This improvement is primarily due to better charge separation within the layered structure, which reduces charge recombination—a key challenge in solar-driven water splitting. Currently, most hydrogen is produced as "gray" hydrogen from fossil fuels, emitting substantial CO₂, whereas "green" hydrogen uses renewable energy but often relies on grid electricity rather than direct sunlight. The Linköping team aims to produce green hydrogen solely from solar energy, which would lower costs and eliminate carbon emissions from the process. Although the technology is promising, it currently
energyhydrogen-fuelsolar-materialsgreen-hydrogenwater-splittingrenewable-energyheavy-transportToyota’s new hypercar runs on liquid hydrogen, debuts at Le Mans
Toyota has unveiled its new hydrogen-powered hypercar, the GR LH2 Racing Concept, at the 24 Hours of Le Mans, signaling a significant advancement in hydrogen combustion technology for motorsport. Building on last year’s GR H2 Concept, the GR LH2 features a hybrid powertrain that combines hydrogen combustion with electric hybrid technology, likely sharing design elements with the successful GR010 Hybrid racecar. The vehicle sports a more aggressive aerodynamic design, including smaller LED headlights, redesigned side intakes, a taller rear wing, and a pronounced fin, while maintaining a similar greenhouse to the GR010. Measuring 5,100 mm long and 2,050 mm wide, the GR LH2 aims to deliver strong track performance and demonstrate hydrogen’s viability in endurance racing. This new hypercar is part of Toyota’s broader “multi-pathway” strategy toward a carbon-neutral future, which includes battery-electric vehicles, hybrids, carbon-neutral fuels, and hydrogen-powered systems. Toyota’s continued investment in hydrogen technology extends beyond
energyhydrogen-fuelhybrid-powertrainToyotahydrogen-combustioncarbon-neutralautomotive-technology