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Green Hydrogen in Steel, Arcelor Mittal Cancels 2 Projects with €1.3 B in Subsidies, Stegra Lands $1.6 B Funding Boost (2021 to 2026)

Green Steel Commercial Projects Face Economic Headwinds

The transition from successful pilot projects to commercially viable, large-scale green steel production using hydrogen is encountering significant economic and infrastructural resistance. While the 2021-2024 period was characterized by ambitious project announcements and technological validation, the period from 2025 has been defined by a market correction, with major players canceling or delaying flagship projects due to high costs and market uncertainty, despite substantial government support.

H 3: From Pilot Success to Commercial-Scale Cancellations

  • Between 2021 and 2024, the industry demonstrated the technical feasibility of the hydrogen-direct reduced iron (H-DRI) pathway. The HYBRIT project in Sweden, a joint venture of SSAB, LKAB, and Vattenfall, was a key example, successfully producing fossil-free steel and demonstrating superior properties in hydrogen-reduced iron.
  • The market dynamic shifted in 2025, exposing the economic fragility of these projects. Arcelor Mittal cancelled two green steel projects in Germany, which had attracted €1.3 billion in subsidies, citing unsustainable costs and weak market demand for green steel premiums.
  • This trend was reinforced by Salzgitter, which announced in late 2025 a three-year delay for its flagship SALCOS hydrogen steel project, highlighting the difficulties in securing favorable economic conditions even for Europe’s most advanced initiatives.

H 3: The Hydrogen Cost Barrier

  • The core challenge is the cost of green hydrogen, which remains significantly higher than conventional fuels. In 2026, unsubsidized green hydrogen production costs range from $2.50 to $7.00 per kilogram, compared to grey hydrogen at $1-$2 per kg.
  • This high input cost translates to a “green premium” for the final product. Analysis shows green steel produced via H 2-DRI costs around $562 per tonne, approximately 5% more than conventionally produced steel, a cost that many offtakers are not yet willing to bear without stronger regulatory incentives. The decarbonization of other heavy industries, such as in the hydrogen in cement industry, faces similar cost-related hurdles.
Leading Green Steel Projects & Companies
Project / Company Market Segment Key Players Location Technology Announced Capacity / Investment Status / Milestone Source
H2 Green Steel (Stegra) Green Steel Production H2 Green Steel Boden, Sweden H2-DRI-EAF $7.1B (€6.5B) in financing Financing secured; construction phase. Aims to cut CO2 by 95%. A line of sight from SightLive – CTVC
HYBRIT Green Steel R&D / Production SSAB, LKAB, Vattenfall Gällivare, Sweden H2-DRI ~500 MW electrolyzer capacity planned Demonstration DRI plant launched Jan 2024; reduces emissions by 500,000 mt annually. HYBRIT Demonstration
ArcelorMittal, Thyssenkrupp, etc. Conventional Steel Decarbonization ArcelorMittal, Thyssenkrupp, Voestalpine, TATA Steel, Dillinger Various, Europe H2-BF (planned) Plans announced for hydrogen use in existing blast furnaces as a transitional step. Hydrogen in steel production: what is happening in Europe
JSW Steel USA Ohio, Inc. Clean Energy Manufacturing JSW Steel USA Ohio, Inc. Ohio, USA Applicant for 48C funding Applied for US government funding (48C program) as of April 2024. Applicant Self-Disclosed 48C Projects
Carnegie Mellon University H-DRI Project H-DRI R&D Carnegie Mellon University, U.S. Department of Energy (DOE) USA H-DRI Receiving DOE funding Project to increase the Technology Readiness Level (TRL) of the H-DRI process. CX-028861: Scaling Hydrogen-Direct Reduced Iron Pathways to …
iBlank cells indicate the underlying source did not report a value for that column.

€1.3 Billion in Subsidies Not Enough to Prevent Project Cancellations

Recent events demonstrate that even multi-billion-dollar government subsidies are insufficient to de-risk green steel projects in the face of prohibitive operational costs and uncertain market demand. High-profile cancellations and delays in 2025 signal that the financial models for many first-generation commercial plants are not viable under current market conditions, forcing a strategic reassessment across the industry.

H 3: Arcelor Mittal and Salzgitter Project Setbacks

The most prominent signal of this market reality check came from Germany. In June 2025, Arcelor Mittal cancelled its plans for green hydrogen-based steel plants in Bremen and Eisenhüttenstadt. This decision was made despite having secured €1.3 billion in German government subsidies, underscoring that public funding alone cannot bridge the gap created by high energy prices and an insufficient market for premium-priced green steel. Similarly, Salzgitter‘s decision to delay its SALCOS project by three years points to systemic economic challenges rather than isolated project-specific issues.

Table: Significant Green Steel Project Cancellations and Delays (2025)

Partner / Project Time Frame Details and Strategic Purpose Source
Salzgitter (SALCOS Project) Sep 2025 Announced a three-year delay for its flagship hydrogen-based steelmaking project. The decision reflects economic pressures and the complex infrastructure requirements for scaling green hydrogen. EUROMETAL
Arcelor Mittal Jun 2025 Cancelled two planned green hydrogen-based steel projects in Germany (Bremen and Eisenhüttenstadt). The decision was made despite attracting €1.3 billion in subsidies, citing unsustainable operational costs and a lack of market appetite for green premiums. Hydrogen Insight
Multiple US Projects Jan 2026 A report indicated that a potential second Trump administration has led to stalls and cancellations of Department of Energy awards and programs, creating policy uncertainty for capital-intensive green energy projects, including those in steel. Federation of American Scientists

Europe vs. New Frontiers: A Geographic Split in Green Steel Momentum

A geographical divergence is emerging in the development of hydrogen-based steelmaking. While Europe, particularly Scandinavia, continues to advance with commercially-backed projects, the industrial heartland of Germany is experiencing significant setbacks. Simultaneously, new regions like the Middle East are leveraging their renewable energy potential to position themselves as future hubs for green iron production.

H 3: Swedish Progress Contrasts with German Delays

  • Sweden remains a leader, with projects moving from pilot to commercial stages. H 2 Green Steel (operating as Stegra) secured a $1.6 billion funding boost in June 2026 to build its large-scale plant in Boden, which aims to produce steel with up to 95% lower CO 2 emissions. This progress is built on the earlier success of the HYBRIT pilot.
  • In contrast, Germany’s ambitions have been tempered. The cancellation of Arcelor Mittal‘s projects and the delay of Salzgitter’s SALCOS program highlight the acute challenges of implementing green steel strategies in regions with high energy costs and without integrated renewable energy infrastructure. The stalling of projects is a broader issue, impacting sectors from shipping with Mediterranean Shipping Company to energy majors like Repsol.

H 3: The Middle East and Asia Emerge as Production Hubs

  • New regions are capitalizing on favorable conditions. In Oman, Meranti Green Steel announced in January 2026 that it had secured full offtake coverage for its planned green hot briquetted iron (HBI) plant in Duqm. This model, which focuses on producing and exporting an intermediate product (HBI) rather than finished steel, leverages the region’s abundant solar resources for competitive green hydrogen production.
  • China and India are also advancing their own hydrogen metallurgy projects. A May 2026 report outlined the economic case for green steel production in India, while other analyses track the top hydrogen metallurgy projects in China, indicating a growing focus in Asia, driven by national decarbonization goals. These efforts mirror strategies by national energy companies like Petro China and ADNOC to develop domestic hydrogen capabilities.
Hydrogen Market Size Forecasts: Green vs. Overall Market Growth
Forecast Provider Market Segment 2025 Market Size ($B) 2026 Market Size ($B) 2031 Market Size ($B) 2035 Market Size ($B) CAGR (%) Source
Precedence Research Green Hydrogen 12.31 16.50 * 57.43 * 231.32 34 * Green Hydrogen Market Size to Hit USD 231.32 Billion …
Market Research Future Green Hydrogen 0.68 1.26 11.53 * 260.17 82.20 * Green Hydrogen Market Size, Share, Trends, Report 2035
Mordor Intelligence Overall Hydrogen Generation 184.48 * 193.06 242.55 290.91 * 4.65 * Hydrogen Generation Market Size & Industry Segments 2031
Precedence Research Overall Hydrogen Market 282.63 304.48 * 418.57 * 594.97 7.73 Hydrogen Market Size to Hit Around USD 594.97 Billion by 2035
iMissing data has been automatically filled using calculation methods (e.g., CAGR projections derived from a source’s own reported values). Calculated values are displayed in blue * — hover any value to see the formula used.

SWOT Analysis of Hydrogen-Based Steelmaking

The strategic landscape for hydrogen in steel has shifted from technological optimism to a focus on commercial realism. While the underlying technology is sound and policy support exists, economic weaknesses and external threats related to cost and market structure have become the dominant factors shaping project viability between 2024 and 2025.

Table: SWOT Analysis for Hydrogen in the Steel Industry

SWOT Category 2021 – 2024 2025 – 2026 What Changed / Resolved / Validated
Strengths The H-DRI-EAF process was validated at pilot scale (e.g., HYBRIT), proving its technical feasibility for producing high-quality, low-carbon steel. The process was recognized by the IPCC as technologically ready. Successful fundraising by private ventures like Stegra ($1.6 billion) and full offtake agreements for projects like Meranti Green Steel show that a commercial model is possible with the right conditions. The key strength shifted from technical proof-of-concept to the validation of a bankable business model under specific conditions (e.g., secured customers, access to cheap renewables).
Weaknesses High projected capital expenditure for new DRI plants and electrolyzers was identified as a major barrier. Dependence on renewable electricity grids was a known infrastructural challenge. The “green premium” for steel is not supported by the broader market, and production costs are non-competitive without heavy subsidies. Green hydrogen costs of $2.50-$7.00/kg are the primary weakness. The theoretical weakness of high cost became a concrete barrier, leading directly to the cancellation of major projects like Arcelor Mittal’s German plants, even with €1.3 billion in subsidies.
Opportunities Increasingly stringent climate policies and the development of carbon pricing mechanisms (like the EU ETS) were seen as key drivers to close the cost gap with conventional steelmaking. Carbon pricing is becoming a tangible factor, with estimates showing H 2-DRI becomes competitive at a carbon price of €34–€68/t CO 2. This creates a direct path to profitability as carbon prices rise. The opportunity is no longer theoretical. The direct link between carbon price and the competitiveness of H 2-DRI provides a clear, quantifiable metric for investment decisions and policy advocacy.
Threats Potential for policy reversals and the risk of “carbon leakage, ” where production moves to regions with less stringent environmental regulations, were primary concerns. High-profile project cancellations (Arcelor Mittal, Salzgitter) create a negative feedback loop, discouraging further investment. Policy instability, highlighted by analysis of potential US DOE program changes, creates significant investor risk. The threat of project failure has materialized, confirming that market and policy risks are immediate and substantial. The industry now faces a “reality check” where only the most economically robust projects can proceed.
Green Hydrogen Cost Analysis and Projections
Analysis Type Market Segment Low Estimate ($/kg) High Estimate ($/kg) Time Period Key Assumptions Source
LCOH from On-Grid System Green Hydrogen Production 2.12 4.65 2024 Grid-connected electrolysis system. Techno-economic analysis of green hydrogen production …
LCOH from Off-Grid System Green Hydrogen Production 4.19 8.66 2024 Off-grid electrolysis system. Techno-economic analysis of green hydrogen production …
Scaled Economy Production Green Hydrogen Production 2.09 2023 Large-scale production with optimized OPEX and CAPEX. Techno-economic analysis of Green-H2@Scale production
Future Cost Target Green Hydrogen Production 2.50 2030 (Target) Achieved via progressive technological innovations. Potential of Progressive and Disruptive Innovation-Driven …
Cost of Hydrogen in Steelmaking (OPEX) Green Steel Production 4 2024 Hydrogen cost above this leads to steel OPEX >$400/ton. Economics of Electrowinning Iron from Ore for Green Steel …
iBlank cells indicate the underlying source did not report a value for that column.
IEA — Hydrogen-Based Steel Slashes Emissions by 95%

Hydrogen-Based Steel Slashes Emissions by 95%
Hydrogen-based steel production (H2-DRI-EAF) emits 0.05-0.1 t CO2 per tonne, achieving up to 95% less CO2 than traditional BF-BOF methods (1.8-2.1 t CO2). This makes green steel the lowest emission route, significantly outperforming transitional NG-DRI-EAF and renewable Scrap-EAF.

(Source: IEA — via Stage set for German steel industry to become major green hydrogen offtaker | S&P Global)

Scenario: Offtake Agreements to Dictate Project Success

Going forward, the success of green steel projects will be determined less by technological innovation and more by commercial execution, specifically the ability to secure binding, long-term offtake agreements. As seen with recent cancellations, government subsidies are a necessary but insufficient condition for success. The new litmus test is whether a project can prove its bankability by locking in customers willing to pay a premium for green steel, thereby de-risking the massive upfront capital investment.

H 3: The Meranti Green Steel Offtake Model

  • Watch the model pioneered by Meranti Green Steel in Oman, which announced in January 2026 it had secured full offtake coverage for its planned facility. This signal demonstrates that demand exists but must be contractually secured before final investment decisions are made. This approach reduces market risk, a factor that was critical in the failure of Arcelor Mittal’s German projects.

H 3: Carbon Pricing as the Key Enabler

  • Monitor the effective carbon price in key jurisdictions like the EU. H 2-DRI is estimated to become cost-competitive at a carbon price of €34–€68/t CO 2. As carbon prices approach and exceed this range, the economic case for green steel strengthens independent of direct subsidies, making projects more resilient to policy shifts. This dynamic is also influencing the hydrogen strategies of integrated energy firms like Equinor and Chevron.

H 3: From Green Steel to Green Iron Exports

  • Expect a potential shift from producing finished green steel to producing and exporting intermediate products like green hot briquetted iron (HBI). This allows regions with cheap renewable energy (like the Middle East or Australia) to supply HBI to traditional steelmaking centers, which can then use their existing Electric Arc Furnaces. This decouples green hydrogen production from the final steel market, optimizing the supply chain globally.
Status of Major Green Steel & Hydrogen Projects (2025-2026)
Company / Project Location Status / Latest Update Capacity / Investment Date of Update Reason / Context Source
Stegra (formerly H2GS) Sweden Funding Secured $1.6 Billion funding boost Jun 26, 2026 Secured major funding despite market headwinds in Europe. Stegra Lands $1.6 Billion Funding Boost to Build Europe’s …
Meranti Green Steel Duqm, Oman Full Offtake Secured 2.5 million tonnes HBI/annum Jan 28, 2026 Secured binding agreements for 100% of Module 1 capacity, ensuring demand. Meranti Green Steel Announces Full Offtake Coverage for …
NEOM Green Hydrogen Plant Saudi Arabia Delayed / Suspended (part of Vision 2030 review) $8.4 Billion JV; 600 tonnes/day H2 Apr 18, 2026 Project is part of the Vision 2030 'Kill List' review, though commissioning is still targeted for Q3 2026. Vision 2030 Kill List: Every Cancelled, Suspended & Delayed
Salzgitter (SALCOS) Germany Delayed Sep 23, 2025 Delayed by three years due to weak demand, high energy costs, and competition. Salzgitter delays Salcos hydrogen steel project by three …
ArcelorMittal (German Plants) Germany Cancelled Revoked claim to €1.3bn ($1.5bn) in subsidies Jun 20, 2025 Cancelled two projects due to unfavorable market conditions and high costs. ArcelorMittal cancels two green hydrogen-based steel …
Cleveland-Cliffs Middletown, Ohio, USA Cancelled $500 Million facility Jul 7, 2025 Cancelled plans for hydrogen-based steel facility, removing a major potential hydrogen consumer. Hydrogen’s Brutal Month: Billions Lost As Mega-Projects …
iBlank cells indicate the underlying source did not report a value for that column.

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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.

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