Green Steel Cancellations, 25+ Projects Delayed, $13 B in US Funding Cuts, and Arcelor Mittal Halts German Plant (2025 to 2026)
An analysis of the clean technology sector from late 2025 through 2026 reveals a period of significant correction, particularly in capital-intensive industries such as green steel. A confluence of macroeconomic pressures, abrupt policy reversals, and persistent supply chain weaknesses has forced a “year of reckoning” where project viability is being rigorously reassessed. Optimism has been replaced by a focus on economic and technological fundamentals, with approximately half of the world’s planned green steel projects now facing delays or outright cancellation.
Green Steel Project Viability: Over 25 Projects Face Delays Due to Policy and Economic Headwinds
The transition from a period of ambitious project announcements between 2021 and 2024 to one of widespread cancellations and delays in 2025 and 2026 marks a critical inflection point for the industrial decarbonization sector. Projects are failing due to a mismatch between ambitious targets and the on-the-ground reality of policy instability, high costs, and underdeveloped supply chains. This shift forces developers and investors to prioritize projects with clear economic justification and resilience against external shocks.
From Unbridled Optimism to a Reality Check
The initial wave of green steel project announcements was fueled by strong policy incentives and corporate climate commitments. However, by 2025, this momentum collided with reality. In Europe, steelmakers including Arcelor Mittal and Salzgitter paused major decarbonization efforts, citing unfavorable market conditions. In the United States, a sharp policy reversal led to the direct termination of federally supported projects, highlighting the sector’s vulnerability to political cycles.
Critical Dependence on Green Hydrogen Supply
The viability of most green steel projects is inextricably linked to the availability of abundant, low-cost green hydrogen. The widespread delays underscore that the hydrogen economy is not yet mature enough to support large-scale industrial offtake. Steelmakers have consistently cited the high cost and uncertain supply of green hydrogen as a primary reason for project suspension, revealing a critical dependency that was underestimated during the initial planning phases. The failure of hydrogen projects, such as the suspension of Lhyfe‘s 100+ MW green hydrogen facility in France, directly impacts the feasibility of downstream industrial consumers.
$13 B+ in Clean Energy Cuts: US Policy Reversal Drives Widespread Project Terminations
A significant driver of project failures in 2025-2026 has been the direct intervention of governments scaling back or eliminating financial support and favorable policies. This was most pronounced in the United States, where a new administration initiated a systematic reversal of previous clean energy initiatives, resulting in the cancellation of billions in grants and the buyout of development leases. This created a chilling effect that extended beyond the directly impacted projects, causing a broader industry reassessment of sovereign risk.
US Federal Funding and Lease Buyouts
The new U.S. administration’s policy shift was swift and decisive. In September 2025, the government announced its intent to cancel over $13 billion in federal funds allocated to green energy projects under the previous administration. This was followed by concrete actions, including the termination of $700 million in battery and manufacturing grants and the buyout of offshore wind leases held by companies like Total Energies for nearly $1 billion. The termination of the Pacific Northwest and California green hydrogen hubs further signaled a pivot away from renewables-based hydrogen pathways.
European Economic and Regulatory Hurdles
In Europe, the challenges were less about direct policy reversal and more about economic and regulatory friction. Steelmakers such as SSAB in Sweden faced significant delays due to protracted environmental permitting processes for its Oxelösund electric arc furnace. German producers like Salzgitter and Arcelor Mittal delayed their flagship green steel projects, pointing to the high cost of energy, the slow development of the green hydrogen market, and insufficient market demand for premium-priced green steel. These issues reflect a market-based reality check on the pace of the transition.
Table: Major Clean Technology and Green Steel Project Cancellations or Delays (2025-2026)
| Partner / Project | Time Frame | Details and Strategic Purpose | Source |
|---|---|---|---|
| NEOM (Trojena Ski Village) | March 2026 | Saudi Arabia’s NEOM project terminated $6.85 billion in contracts, including a structural steel agreement for the Trojena development, signaling a significant scaling back of its ambitions. | Dezeen |
| Arcelor Mittal (Germany) | March 2026 | Canceled plans to convert its Bremen and Eisenhüttenstadt plants to use green hydrogen, citing unfavorable market conditions and high hydrogen costs. | Chemistry World |
| Total Energies U.S. Offshore Wind | March 2026 | The U.S. government paid the company nearly $1 billion to abandon its offshore wind development as part of a federal effort to halt such projects. | CNN |
| SSAB (Sweden) | May 2026 | Indefinitely postponed its new Electric Arc Furnace in Oxelösund due to prolonged delays in securing environmental permits from Swedish authorities. | GMK Center |
| BP Blue Hydrogen (UK) | December 2025 | BP scrapped its H 2 Teesside blue hydrogen project, a major component of its low-carbon strategy, signaling a broader reassessment of hydrogen investments. | Hydrogen Insight |
| U.S. DOE Clean Energy Grants | Oct 2025 | The U.S. Department of Energy initiated the cancellation of $13 billion in funds, with $700 million in battery and manufacturing grants among the first confirmed cuts. | Utility Dive |
| Salzgitter (Germany) | Sept 2025 | Delayed the later stages of its SALCOS green steel project, citing economic and regulatory uncertainty as primary factors. | Reuters |
| Cleveland-Cliffs (USA) | August 2025 | Abandoned its federally backed project for a hydrogen-ready furnace after the administration questioned its $500 million grant, citing a shift in federal priorities. | Cincinnati Enquirer |
US vs. Europe: Divergent Drivers of Green Steel Project Delays and Cancellations
The geographic analysis of green steel project setbacks reveals two distinct narratives. In the United States, project failures were primarily driven by a top-down, abrupt political shift that directly targeted clean energy funding. In contrast, European projects stumbled due to bottom-up market forces, including high operating costs, regulatory friction, and an immature green hydrogen supply chain. This divergence highlights different risk profiles for clean technology investments across regions.
United States: Abrupt Policy-Driven Reversals
The U.S. experience in 2025-2026 serves as a case study in political risk. The cancellation of $13 billion in funding and the buyouts of offshore wind leases were not driven by market economics but by a change in governing ideology. The case of Cleveland-Cliffs, which abandoned its hydrogen-ready steel project after its $500 million grant came under scrutiny, exemplifies how quickly federal support can be withdrawn, stranding projects that were viable under a different policy regime.
Europe: Market-Based Economic Pressures
European steelmakers faced a different set of challenges. While policy support from the EU remained broadly in place, the economics of green steel production proved difficult. Projects by Arcelor Mittal and Salzgitter were delayed because the high cost of green hydrogen and electricity made the final product uncompetitive against conventional steel. Regulatory hurdles, as seen with SSAB’s permitting issues in Sweden, added another layer of complexity, demonstrating that even with political will, market and administrative barriers can be formidable.
Green Steel Pipeline Bottlenecked: $30B Announced, Zero Operating
Over 15 net-zero steel projects are announced globally with an investment pipeline exceeding $30 billion and potential for >40 MtCO2/year emissions reduction. However, a stark drop-off reveals only ~7 projects have reached Final Investment Decision (FID), and none are currently operating.
Net-Zero Steel Ambitions Lag: Operational Projects Stalled
The massive conversion gap between announced and operating projects highlights critical challenges in scaling green steel production, risking global net-zero targets. This indicates significant hurdles in financing, technology de-risking, and securing regulatory approvals, hindering decarbonization of a hard-to-abate sector.
(Source: Mission Possible Partnership — via Slowing momentum and persistent barriers set up a critical year for green steel in 2026 | SEI)
Technology Maturity: Green Hydrogen’s Unavailability Undermines Green Steel Timelines
The widespread stalling of green steel projects is a direct consequence of the technological and commercial immaturity of the green hydrogen ecosystem. The strategy of building direct reduced iron (DRI) plants designed to run on natural gas initially and switch to hydrogen later is being tested, as the timeline for affordable green hydrogen appears to be longer than anticipated. The current challenges validate that green steel’s progress is fundamentally gated by the pace of hydrogen infrastructure development.
The Gap Between Pilot Projects and Commercial Scale
The period from 2021 to 2024 saw numerous successful pilot projects, creating confidence in the technical feasibility of hydrogen-based steelmaking. However, the step-up to commercial-scale production has exposed the chasm between controlled pilots and industrial reality. The consistent supply of massive quantities of green hydrogen required for a commercial steel plant does not yet exist, and the cost differential remains prohibitive without significant, long-term subsidies.
Cost Competitiveness and Infrastructure Deficits
Wood Mackenzie’s assessment that hydrogen faces a “year of reckoning” in 2026 is reflected in the steel industry’s delays. The cost to produce green hydrogen remains several times higher than the industry’s target for economic viability. Furthermore, the lack of transportation and storage infrastructure creates a classic chicken-and-egg problem: steelmakers are hesitant to build hydrogen-ready plants without a secure supply, and hydrogen producers are hesitant to invest in large-scale production without guaranteed offtake.
SWOT Analysis: Examining Strengths and Execution Risks for the Green Steel Sector
The recent wave of project cancellations and delays provides a clear basis for re-evaluating the strategic landscape for green steel. A SWOT analysis reveals an industry grappling with its dependence on external factors like policy and energy markets while trying to build on its foundational technological progress. The key challenge moving forward is to mitigate threats from policy instability and high costs by leveraging the lessons from early projects and focusing on building a resilient business case.
SWOT Table: Green Steel Market Dynamics
| SWOT Category | 2021 – 2024 | 2025 – 2026 | What Changed / Validated |
|---|---|---|---|
| Strengths | Strong political will and policy incentives (e.g., IRA, EU Green Deal). Proven technical feasibility at pilot scale. Broad corporate and public support for decarbonization. | First-mover projects are generating real-world operational data. A market correction is forcing a focus on the most economically viable projects. | The core technology works, but the business model is fragile. The industry is being forced to prioritize efficiency and de-risking over rapid expansion. |
| Weaknesses | High capital expenditure. Heavy reliance on immature green hydrogen supply chains. Undeveloped market for premium-priced green products. | Extreme sensitivity to energy price volatility. Proven vulnerability to political cycles and abrupt policy reversals. Permitting and regulatory timelines are a major bottleneck. | The theoretical weaknesses of the green steel model were validated by real-world events. The lack of a mature hydrogen ecosystem is now a proven constraint, not a future risk. |
| Opportunities | First-mover advantage in a nascent global market. Access to green stimulus funding and subsidies. Ability to lock in long-term green offtake agreements. | Market consolidation around the most resilient players. Development of more robust, flexible project financing models. Increased focus on alternative pathways (e.g., CCUS, process efficiency). | The “grow at all costs” mentality is being replaced by a focus on sustainable, profitable growth. Companies that solve the cost and supply challenges will have a significant competitive advantage. |
| Threats | Potential for shifts in political priorities. Risk of low-cost, high-carbon imports undercutting green producers. Delays in hydrogen infrastructure build-out. | Sustained policy instability in key markets (e.g., U.S.). Persistently high costs for green hydrogen and renewable electricity. Weakening consumer demand for premium green products during economic downturns. | Political and sovereign risk have been validated as primary threats to long-term, capital-intensive projects. The risk of being undercut by conventional steel remains a powerful market force. |
2026 Scenario Modeling: Project Viability Hinges on Economic Discipline and Policy Certainty
Looking ahead, the survival and success of green steel projects will depend on a renewed focus on economic fundamentals and the ability to navigate a volatile policy environment. The most critical factor for the next 12-24 months is whether developers can secure long-term offtake agreements and stable policy frameworks that de-risk the massive upfront capital investment. The era of speculative announcements is over; the era of disciplined execution has begun.
Key Signals for Project Survival
Watch for projects that demonstrate a clear path to cost-competitiveness without permanent reliance on subsidies. Key signals of a viable project will include secured access to low-cost renewable energy, vertical integration or long-term partnerships with hydrogen producers, and binding offtake agreements with customers willing to pay a green premium. Projects that are modular and can be phased to adapt to market conditions will have a higher probability of success than large, monolithic developments.
Strategic Adjustments for Developers and Investors
Developers must now build political and market risk into their financial models more explicitly. This includes diversifying geographic footprints to mitigate the impact of any single country’s policy shifts and exploring more flexible technological pathways that may include blue hydrogen or carbon capture as interim solutions. For investors, the focus shifts from assessing technology risk to evaluating execution risk and the resilience of a project’s business model against macroeconomic and political headwinds.
The questions your competitors are already asking
This report covers one angle of the commercial challenges for green steel. The questions that matter most depend on your work.
- green steel projects with secured financing
- green hydrogen price targets for steel industry
- companies with green steel offtake agreements
- carbon capture for steel plants vs hydrogen
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Erhan Eren
Erhan Eren is the CEO and Co-Founder of Enki, a commercial intelligence platform for emerging technologies and infrastructure projects, backed by Equinor, Techstars, and NVIDIA. He spent almost a decade in oil and gas, first at Baker Hughes leading market intelligence, strategy, and engineering teams, then at AI startup Maana, where he spearheaded commercial strategy to acquire net new accounts including Shell, SLB, and Saudi Aramco. It was across these roles, watching teams stitch together executive briefings from scattered PDFs and Google searches, that the idea for Enki was born. Erhan holds a BS in Aeronautical Engineering from Istanbul Technical University and an MS in Mechanical and Aerospace Engineering from Illinois Institute of Technology. He has spent over 20 years at the intersection of energy, strategy, and technology, and built Enki to give professionals the clarity they need without the analyst-grade budget or timeline.

