The Great Hydrogen Reset
How a fledgling industry hit its first reality check, and what's still being built.
The Great Hydrogen Reset is the story of a nascent industry hitting its first serious reality check, with more than sixty large clean hydrogen projects cancelled and over 4.9 million tonnes of planned annual production capacity wiped from 2030 pipelines in just two years (Murray, 2025; Chemistry World, 2026; Green Fuel Journal, 2026).
What is left standing today are smaller, more bankable projects built around firm offtake agreements, captive industrial demand and sober economics rather than hype (IEA, 2025; Decarbonfuse, 2026; Bankable Show, 2026).
#The Great Hydrogen Reset
Over 2025 and early 2026, the global clean hydrogen sector moved from exuberant announcements to painful cancellations, often from the same oil and gas majors that had championed hydrogen only a few years earlier (Murray, 2025).
Data compiled by S&P Global and reported by several outlets show that close to 60 major low carbon hydrogen projects were cancelled or put on hold in 2025, representing about 4.9 million tonnes per year of planned capacity that will now not be built (Murray, 2025; Chemistry World, 2026).
More than 100 hydrogen projects of various sizes have been cancelled, paused or scaled back globally since mid-2024, showing that this is not an isolated blip but a broad correction of the first wave of hydrogen optimism (Wood Mackenzie data in Decarbonfuse, 2026; Bankable Show, 2026).
#How Big the Shakeout Was?
To understand the reset, it helps to compare what was cancelled with what actually moved ahead. In 2025, the low emissions hydrogen industry took final investment decisions (FID) or started construction on roughly one million tonnes per year of new capacity while cancelling over 4.9 million tonnes per year , so for each tonne committed, about five tonnes were abandoned (Ahsen, 2026; Chemistry World, 2026; Monard Infrastructure, 2026).
The International Energy Agency's Global Hydrogen Review 2025 shows the impact on medium term expectations, cutting potential 2030 low emissions hydrogen output from announced projects from 49 million tonnes per year in the 2024 review to just 37 million tonnes in the 2025 edition, largely because cancelled or delayed projects were removed from the outlook (IEA, 2025).
Of that 37 million tonnes, the IEA estimates that only about 10 million tonnes has strong potential to materialise by 2030, while much of the rest looks uncertain given the limited time left for construction and financing (IEA, 2025).
#Why So Many Projects Died?
Most of the cancelled projects did not fail because electrolysers or carbon capture technology stopped working, they failed because the business case never closed (Ahsen, 2026; Chemistry World, 2026)
Across multiple case studies, three themes repeat: i) weak or non-existent buyer commitments, ii) rising capital and financing costs, and iii) policy or regulatory shifts that undermined the original economics (Murray, 2025; Akram, 2025; Green Fuel Journal, 2026).
Developers frequently tried to build very large export-oriented projects without firm offtake agreements, hoping that future price declines and policy support would fill the gap. But when buyers did not sign long-term contracts and debt costs came in far higher than assumed, these projects became unbankable (Decarbonfuse, 2026; Green Fuel Journal, 2026).
>Key pressures included:
- Production costs for green hydrogen in Europe often several euros per kilogram above what industrial customers were willing to pay, creating a stubborn gap that subsidies alone could not fully close (Kinimato, 2026; Green Fuel Journal, 2026).
- Financing costs for green hydrogen projects estimated to be more than three times those of mature renewables, which turned apparently viable business cases into loss-making propositions at realistic risk-adjusted debt rates (Green Fuel Journal, 2026).
- Policy changes such as final rules for the US 45V tax credit and EU "additionality" and time-matching requirements, which reduced the number of projects qualifying for headline support and forced expensive redesigns (Bankable Show, 2026; Green Fuel Journal, 2026).
#Air Products' Louisiana Lesson
One of the most visible casualties of this reset was Air Products' 4.5 billion dollar blue hydrogen and carbon capture complex planned near Burnside in Ascension Parish, Louisiana, sometimes described as one of the world's largest such projects (Oil & Gas Journal, 2026; Roland Berger, 2022).
The project aimed to produce blue hydrogen from natural gas and permanently sequester more than five million tonnes of carbon dioxide per year, with associated low-carbon ammonia production and a major pipeline network , but was cancelled after Air Products concluded that the expected financial returns no longer met its internal criteria (Oil & Gas Journal, 2026).
Regulatory delays, local opposition around environmental risks, and the company's broader decision to terminate other clean energy projects in early 2025 when economic incentives proved inadequate all contributed to the decision, highlighting how community acceptance and permitting interact with pure project economics (Oil & Gas Journal, 2026).
#BP's Oman Exit
BP's withdrawal from the Duqm green hydrogen export project in Oman is another signal case of speculative ambitions colliding with market realities (Energy News, 2025).
The Duqm project emerged from Oman's first major hydrogen auction round and was designed to produce green hydrogen for export, but BP exited as part of a wider restructuring of its global hydrogen portfolio, which included withdrawals from projects in Australia and the United Kingdom amid persistent offtake uncertainty and capital cost inflation (Energy News, 2025).
Hydrom, Oman's national hydrogen authority, emphasised that seven awarded projects remain active, but the same demand and financing challenges face these survivors and that the terminated HyDuqm venture , which also ended by mutual agreement , had failed to secure the kind of binding demand commitments needed to reach financial close (Energy News, 2025).
#ArcelorMittal's Green Steel Pause
In Germany, ArcelorMittal cancelled plans to convert its steel plants in Bremen and Eisenhüttenstadt to hydrogen-based direct reduced iron routes, walking away from 1.3 billion euros in pledged government subsidies it had been awarded but ultimately turned down , widely interpreted as a warning sign for Europe's green steel ambitions (Reuters, 2025; REGlobal, 2025; Hydrogen Insight, 2025).
The company cited a combination of very high electricity prices, limited availability of green hydrogen at scale, policy uncertainty and weak profitability for low-emission steel production as reasons for abandoning the conversion, concluding that the business case was not strong enough even with public support (Brussels Signal, 2025; Economy.ac, 2025).
ArcelorMittal indicated that it would instead focus new investments in locations such as Dunkerque in France, where electricity prices and policy conditions appeared more favourable, and that the German plants might still shift to electric arc furnaces at some later date if economics improve , underlining how sensitive hydrogen-based steel projects are to local energy system costs (Brussels Signal, 2025).
#Cancelled and Surviving Projects
A few emblematic projects help illustrate what died and what survived.
Project | Brief description and status |
Air Products Louisiana clean energy complex | 4.5 billion dollar blue hydrogen and carbon capture project near Burnside, Louisiana, cancelled in 2026 due to unfavourable economics and permitting delays (Oil & Gas Journal, 2026). |
BP Duqm green hydrogen, Oman | Large export-oriented green hydrogen project exited by BP in 2025 as part of portfolio restructuring amid offtake and cost pressures (Energy News, 2025). |
ArcelorMittal Bremen and Eisenhüttenstadt | Hydrogen-based green steel conversion projects cancelled in 2025 despite 1.3 billion euros in subsidies because of high energy costs and weak profitability (REGlobal, 2025; Hydrogen Insight, 2025). |
ExxonMobil Baytown blue hydrogen, Texas | Very large blue hydrogen project still awaiting final investment decision as of 2026, with only partial offtake secured (Marubeni committed to about a quarter of planned ammonia output) and the company waiting for more committed buyers before proceeding (Enkiai, 2026; Decarbonfuse, 2026). |
NEOM Green Hydrogen, Saudi Arabia | Around 2.2 gigawatt green hydrogen to ammonia project, roughly ninety percent complete by late 2025, backed by a long-term exclusive offtake agreement with Air Products (Decarbonfuse, 2026). |
Stegra (formerly H2 Green Steel), Sweden | About 690 megawatt electrolyser supplying hydrogen direct reduced iron and electric arc furnaces for green steel, financed with roughly 7 billion euros in capital and 1.4 billion euros closed in April 2026, supported by contracts with major automotive and industrial buyers (Bankable Show, 2026). |
CF Industries Blue Point, Louisiana | Approximately 4 billion dollar blue hydrogen to ammonia project that reached final investment decision in April 2025 with Japanese firms JERA and Mitsui as equity partners and offtakers (Decarbonfuse, 2026). |
Linde and Woodside Beaumont, Texas | Around 1.8 billion dollar blue hydrogen project linked to ammonia production, moving ahead with long-term supply agreements and existing infrastructure, with grey ammonia operating from late 2025 and carbon capture integration planned by 2026 (Decarbonfuse, 2026). |
These examples show that large speculative projects without committed buyers and with complex export infrastructure were the most vulnerable, while projects tied to specific industrial uses with signed offtake managed to progress through the reset (Decarbonfuse, 2026; Bankable Show, 2026).
#Bankable Projects and Offtake
Across analytics from the Hydrogen Council, IEA and sector consultancies, one pattern stands out clearly: hydrogen projects remain bankable only when buyers sign binding offtake agreements for hydrogen as a chemical feedstock rather than as a general energy fuel (Hydrogen Council, 2025; IEA, 2025; Decarbonfuse, 2026).
Hydrogen Council data suggest that roughly 3.6 million tonnes per year of binding hydrogen offtake has been secured globally, with about 43 percent directed to ammonia production and most of the rest to refining, chemicals and steel feedstocks , while hydrogen as a fuel for power or general transport lags far behind (Hydrogen Council, 2025; Decarbonfuse, 2026).
The IEA notes that almost all firm offtake agreements and around 80 percent of investment in committed production projects are anchored in existing applications in refining and chemicals or in specific hydrogen-based fuels for shipping, which sharply contrasts with the cancelled wave of speculative export projects without clear customers (IEA, 2025).
For investors and lenders, this translates into a simple screening rule: pay more attention to tonnes under binding purchase agreements than to gigawatts announced or brochures printed (Kinimato, 2026; Monard Infrastructure, 2026).
If the buyer has not committed to pay a particular price for a particular volume over a particular period, the project's revenue line is effectively hypothetical, and the chances of cancellation rise dramatically (Ahsen, 2026).
#What Survived the Reset
The projects that survived or advanced through this correction share a common profile, which is quite different from many of the ventures that died. They are usually:
- Modular rather than mega-scale, with capacities in the tens to hundreds of megawatts instead of gigawatts, which reduces execution risk and financing needs (Bankable Show, 2026).
- Co-located with existing industrial facilities such as steel plants, ammonia terminals or refineries, where hydrogen replaces grey hydrogen already used as a feedstock, making demand far more predictable (Decarbonfuse, 2026).
- Structured around sovereign-backed or enterprise-backed offtake, as in NEOM's three-decade contract with Air Products or Stegra's portfolio of automotive and industrial customers willing to pay a manageable green steel premium (Decarbonfuse, 2026; Bankable Show, 2026).
In addition, many surviving projects sit in regions with cheaper and more stable electricity, or access to high-quality renewable resources, which materially improves the levelised cost of hydrogen and makes bankable pricing more realistic (Brussels Signal, 2025; Green Fuel Journal, 2026).
China appears prominently in construction statistics, accounting for roughly 25 of 59 global hydrogen construction starts in 2025, including several of the largest projects, where hydrogen is tightly integrated into domestic chemicals and industrial processes rather than export markets (Decarbonfuse, 2026).
#Lessons for Researchers
#Several practical lessons emerge:
#First, models and academic frameworks need to treat offtake agreements as central inputs, not as peripheral assumptions. Many cancelled projects assumed future demand without binding contracts, whereas the survivors secured agreements before final investment decision; future research can explicitly represent contract structures, price floors, indexation and counterparty risk in project viability models (Hydrogen Council, 2025; Decarbonfuse, 2026).
#Second, hydrogen cost modelling must realistically incorporate financing costs, policy risk and grid or renewable supply constraints. Analyses that use average renewable electricity prices and low financing rates may systematically overstate project viability; integrating realistic, risk-adjusted weighted average cost of capital and policy scenarios would better reflect what actually killed projects like Darrow or the German green steel initiatives (Green Fuel Journal, 2026; Roland Berger, 2022; Oil & Gas Journal, 2026).
#Third, socio-environmental and permitting factors deserve serious attention. The cancellation of large projects in the United States and community opposition around carbon storage and pipeline routes show that social licence and regulatory process times can be as decisive as levelised cost calculations, so supply chain research can integrate spatial planning, stakeholder analysis and environmental impact into optimisation models (Oil & Gas Journal, 2026; Enkiai, 2026).
#Finally, for those designing future hydrogen networks, the reset suggests an "industrial first" strategy. Focusing on replacing existing grey hydrogen in refineries, ammonia and methanol plants, or integrating hydrogen into steelmaking where buyers already understand the product, creates more robust supply chains than chasing distant export markets that may not materialise on time (IEA, 2025; Decarbonfuse, 2026).
#What Comes Next
The collapse of more than sixty major projects does not mean clean hydrogen is doomed , it means the speculative era based on announcements without buyers is closing, and a more disciplined, bankable phase is beginning (Akram, 2025; Monard Infrastructure, 2026).
By 2030, the hydrogen industry will likely be smaller than many 2022 forecasts suggested, but the capacity that does get built will be tied to real industrial needs, stronger contracts and more realistic capital structures , which is ultimately a healthier foundation for long-term growth (IEA, 2025; Bankable Show, 2026).
For researchers and project developers alike, watching which projects still make it through final investment decisions over the next few years , and understanding exactly why , will be one of the most important ways to learn from this Great Hydrogen Reset (Ahsen, 2026; Chemistry World, 2026).
The Great Hydrogen Reset didn't kill clean hydrogen , it killed the projects without buyers, leaving a smaller, sturdier industry built on binding offtake, real industrial demand, and honest economics.
References
Ahsen, M. (2026, July 7). Why hydrogen projects die before FID [LinkedIn post]. LinkedIn. https://www.linkedin.com/posts/muhammadahsen_why-hydrogen-projects-die-before-fid-in-activity-7480534899997773824-vaj9
Akram, M. A. (2025, December 28). Hydrogen projects cancelled globally amid weak demand and policy uncertainty [LinkedIn post]. LinkedIn. https://www.linkedin.com/posts/muhammad-azeem-akram-38751959_ma-hydrogen-cleanenergy-activity-7411378840826191872-toeR
Bankable Show. (2026, May 1). The green hydrogen reset: Why 60 projects died and what survives. https://bankable.show/articles/dd007-green-hydrogen-reset/
Brussels Signal. (2025, June 22). ArcelorMittal cancels German 'green' steel projects and shifts focus to France. https://brusselssignal.eu/2025/06/arcelormittal-cancels-german-green-steel-projects-and-shifts-focus-to-france/
Chemistry World. (2026, March 4). Clean hydrogen project cancellations point to narrower future. https://www.chemistryworld.com/news/clean-hydrogen-project-cancellations-point-to-narrower-future/4023051.article
Decarbonfuse. (2026, April 2). Hydrogen's 4.9M-tonne shakeout: What's still being built. https://decarbonfuse.com/posts/hydrogen-s-4-9m-tonne-shakeout-what-s-still-being-built
Economy.ac. (2025, June 22). ArcelorMittal scraps German hydrogen steelmaking project. https://economy.ac/news/2025/06/20250658305
Energy News. (2025, December 11). BP exits Oman's Duqm green hydrogen project as developer withdrawals test Gulf state strategies. https://energynews.biz/bp-exits-omans-duqm-green-hydrogen-project-as-developer-withdrawals-test-gulf-state-strategies/
Enkiai. (2026, June 17). Exxon Mobil hydrogen 2026, 3.7B DOE cut, BP pause. https://enkiai.com/hydrogen/exxonmobil-blue-hydrogen-baytown/
Green Fuel Journal. (2026, June 15). Green hydrogen cost economics 2026: The real path to price parity. https://www.greenfueljournal.com/post/green-hydrogen-cost-economics-2026-the-real-path-to-price-parity
Hydrogen Council. (2025, September 9). Global Hydrogen Compass 2025. Hydrogen Council & McKinsey & Company. https://hydrogencouncil.com/en/global-hydrogen-compass/
Hydrogen Insight. (2025, June 19). ArcelorMittal cancels two green hydrogen-based steel projects in Germany, despite attracting €1.3bn of subsidies. https://www.hydrogeninsight.com/industrial/arcelormittal-cancels-two-green-hydrogen-based-steel-projects-in-germany-despite-attracting-1-3bn-of-subsidies/2-1-1836221
International Energy Agency [IEA]. (2026). Global hydrogen review 2025. https://www.iea.org/reports/global-hydrogen-review-2025/executive-summary
Kinimato. (2026, July 20). The world announced a hydrogen future in gigawatts. Almost. https://kinimato.substack.com/p/the-world-announced-a-hydrogen-future
Monard Infrastructure. (2026, June 8). What happened to hydrogen? https://monardinfrastructure.com/news/what-happened-to-hydrogen
Murray, C. (2025, December 8). Hydrogen dreams meet reality as oil and gas groups abandon projects. Financial Times. https://www.ft.com/content/b0981f8a-d115-4779-bbed-75a87316a892
Oil & Gas Journal. (2026, July 10). Air Products scraps Louisiana blue hydrogen, CCS project. https://www.ogj.com/energy-transition/news/55389934/air-products-scraps-louisiana-blue-hydrogen-ccs-project
REGlobal. (2025, June 25). ArcelorMittal cancels plans for green steel plants in Germany due to high energy costs. https://reglobal.org/arcelormittal-cancels-plans-for-green-steel-plants-in-germany-due-to-high-energy-costs/
Reuters. (2025, June 20). Germany regrets Arcelor's decision to halt carbon-neutral steel production | Reuters
Roland Berger. (2022, November 7). Clean hydrogen radar. https://www.rolandberger.com/en/Insights/Publications/Clean-Hydrogen-Radar.html
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