Samskip’s PEM Fuel Cell Ecosystem, 6.4 MW Ballard Order, 2 Vessels, and 4 Key Agreements (2025)

Hydrogen Shipping Projects: Samskip’s Shift from Concept to Commercial Scale

In 2025, the development of hydrogen-powered shipping moved from conceptual designs to the execution of an integrated commercial ecosystem, exemplified by Samskip’s Sea Shuttle project. The company’s actions demonstrate a strategic shift from announcing decarbonization targets to securing the complete value chain, including propulsion hardware, fuel supply, system integration, and vessel construction. This approach addresses the primary market risk for hydrogen adoption: the lack of a connected supply chain to support vessel operation.

Samskip’s Integrated Value Chain

The company focused on building a de-risked operational model by solidifying partnerships across the entire value chain. This ensures that the vessels will not be stranded assets waiting for a fuel source or critical technology.

• Before 2025, hydrogen shipping initiatives were largely defined by memorandums of understanding and small-scale pilot announcements. In contrast, Samskip’s progress in 2025 was marked by binding commercial agreements for multi-megawatt systems and the physical start of vessel construction.
• The company secured its propulsion technology with a purchase order for 6.4 MW of PEM fuel cell engines from Ballard Power Systems in July 2025, with deliveries scheduled for 2025 and 2026. Each of the two vessels will use a 3.2 MW power plant.
• To address the critical fuel availability constraint, Samskip signed a key agreement on December 5, 2025, selecting Norwegian Hydrogen as its preferred supplier of liquid green hydrogen for the planned Oslo-Rotterdam route.
• The project’s viability was further solidified by engaging specialist partners for critical systems, including e Cap Marine for fuel cell integration and Sperry Marine for the autonomous-ready Integrated Bridge Systems.

Dual-Pronged Decarbonization Strategy

While advancing its hydrogen project for newbuilds, Samskip also initiated a parallel project to decarbonize its existing fleet. This dual strategy mitigates risk and provides an immediate path to emissions reduction while longer-term hydrogen solutions mature.

• In January 2025, Samskip joined a consortium with Value Maritime to install an onboard Carbon Capture System (CCS) on its existing LNG-fueled vessel, the Samskip Kvitbjorn.
• This move shows a pragmatic recognition that achieving its 2040 net-zero target requires solutions for both new and existing assets, contrasting with a single-technology-focused approach. The scale of the Ballard order is significant, mirroring moves by companies like Plug Power to build out gigafactories for hydrogen technology.

Samskip Investment: $6.4 M+ in Hydrogen Propulsion and Carbon Capture

Samskip’s financial commitments in 2025 transitioned from planning to tangible asset procurement, with major investments in both hydrogen fuel cell systems for new vessels and carbon capture technology for its existing fleet. This capital allocation confirms a dual-pathway approach to its 2040 net-zero goal, funding next-generation propulsion while simultaneously investing in retrofit solutions for immediate emissions reduction. These investments signal a material shift toward building physical assets rather than funding exploratory research.

Capital Allocation for Newbuilds

The primary investment in 2025 was directed at the core components for the two Sea Shuttle container ships. This included the largest-ever order for marine fuel cells and the start of vessel construction.

Investment in Retrofit Technology

Alongside its hydrogen project, Samskip also allocated funds toward retrofitting existing vessels, indicating a strategy to address its current emissions footprint. While Samskip focuses on marine applications, other firms like Fuel Cell Energy are targeting stationary power for data centers.

Table: Samskip’s Key Decarbonization Investments and Commitments (2025)

Samskip’s 4 Key Alliances for Hydrogen Shipping (2025)

Samskip’s 2025 strategy was defined by the formation of a network of specialized partners to execute its Sea Shuttle project, demonstrating that commercializing hydrogen shipping requires an ecosystem, not a standalone technology. By securing alliances for fuel supply, propulsion technology, system integration, and vessel control, the company has systematically addressed the primary operational hurdles. This networked approach contrasts with earlier industry efforts that often focused on a single component, such as the engine, without a clear path to fuel or integration.

Securing the Fuel and Propulsion Ecosystem

The most critical partnerships established in 2025 were those that secured the fuel source and the core propulsion hardware, the two biggest uncertainties in hydrogen projects.

Integrating Advanced Vessel Systems

Beyond fuel and power, Samskip formed alliances to ensure the complex systems on board the vessels would be integrated and future-proof. While Samskip pioneers hydrogen in shipping, companies like Hyundai are advancing its use in terrestrial transport with hydrogen bus fleets.

Table: Samskip’s Key Hydrogen and Decarbonization Partnerships (2025)

Europe vs. Global: Samskip’s Green Corridor Model

Samskip’s geographic focus on the Oslo-Rotterdam route validates the “green corridor” model as the most viable near-term strategy for deploying hydrogen-powered shipping. By concentrating infrastructure, fuel supply, and vessel operations within a defined, short-sea route supported by proactive ports, this approach avoids the immense logistical challenges of building a global hydrogen refueling network. This regional concentration of activity in Northern Europe in 2025 marks a shift away from the more scattered, globally dispersed pilot projects seen between 2021 and 2024.

The Oslo-Rotterdam Hydrogen Corridor

This route was strategically selected due to a convergence of logistical advantages and regional political will. The choice of Norwegian Hydrogen as a fuel supplier highlights the growing importance of regional green hydrogen production, a market targeted by industrial giants like Samsung.

• The corridor connects two major ports, Oslo and Rotterdam, that have both committed to developing hydrogen infrastructure. This ensures supportive bunkering facilities at both ends of the route.
• The selection of Norwegian Hydrogen as a supplier leverages Norway’s growing green hydrogen production capacity, creating a localized supply chain that reduces fuel transportation costs and complexities.
• Ship construction is taking place at Cochin Shipyard in India, indicating a globalized approach to manufacturing, while operations remain concentrated in Europe. This separates the capital-intensive shipbuilding from the operational geography.

Commercial Scale vs. Pilot: Samskip’s Technology Maturity

The Sea Shuttle project confirms that the core technology for hydrogen shipping, PEM fuel cells, has reached a level of maturity sufficient for multi-megawatt commercial deployment. The primary challenge has shifted from fundamental technology development, which characterized the 2021-2024 period, to system integration, scaling, and operational validation in a real-world marine environment. Samskip’s hardware procurement and construction milestones in 2025 serve as a key validation point for the commercial readiness of the integrated system.

Validating Multi-Megawatt Fuel Cell Systems

The order for Ballard’s FCwave™ engines is a significant indicator of technology maturity, moving beyond single-kilowatt or small-scale demonstrators.

• Samskip’s vessels will each use a 3.2 MW hydrogen power plant, one of the largest planned for a commercial vessel to date. This demonstrates confidence in the ability to scale and integrate multiple fuel cell modules for primary propulsion.
• The use of Ballard’s FCwave™-200 k W modules, a product specifically designed for the rigors of marine applications, shows a move from general-purpose fuel cells to specialized, type-approved systems.
• The delivery schedule of 2025-2026 aligns with the vessel construction timeline, suggesting the technology is available on a commercial off-the-shelf basis, not as a long-lead R&D item.

Advancing Automation and Retrofit Solutions

Beyond propulsion, Samskip is adopting mature technologies in navigation and emissions reduction for its existing fleet, reflecting a broader technological strategy.

• The selection of Sperry Marine’s “autonomous-ready” Integrated Bridge Systems indicates planning for future operational efficiencies and a belief that the underlying navigation and control technologies are sufficiently advanced.
• The parallel adoption of Value Maritime’s modular carbon capture system for the Samskip Kvitbjorn demonstrates the commercial availability of practical retrofit solutions that can be deployed on existing vessels without requiring a complete powertrain overhaul.

SWOT Analysis: Samskip’s Hydrogen Ecosystem Strategy

Samskip’s strategic position in 2025 is defined by a strong first-mover advantage, built on a comprehensive ecosystem of partners that de-risks its entry into hydrogen-powered shipping. However, this leadership position is dependent on external factors, including the pace of green hydrogen infrastructure development and the cost-competitiveness of the fuel. The company’s progress in 2025 validated its integrated approach but also highlighted its exposure to the nascent green hydrogen supply market.

Samskip’s First-Mover Advantage

The company has established a clear lead by securing its entire value chain, from vessel construction to fuel supply.

Exposure to Nascent Hydrogen Markets

While leading in vessel development, Samskip remains dependent on the broader energy market to deliver affordable green hydrogen at scale.

Table: SWOT Analysis for Samskip’s Hydrogen Ecosystem (2025)

Samskip Scenario Model: Hardware Delivery and Hydrogen Costs

The critical factor for Samskip’s project in the next 18 months is execution: the on-time delivery of the fuel cell systems from Ballard and the steady construction progress at Cochin Shipyard. The project has moved past the strategic planning phase, and its success now hinges on supply chain performance and the emerging cost curve of liquid green hydrogen. Any delays in hardware or construction will directly impact the planned 2027 service launch.

Hardware Delivery Schedule

If Ballard Power Systems completes the delivery of all 6.4 MW of fuel cell modules to the integrator e Cap Marine by the end of 2026 as scheduled, watch for an announcement on the start of the propulsion system integration in Rotterdam. This would keep the project on track for its 2027 launch.

Vessel Delivery and Operational Viability

If the first Sea Shuttle vessel is delivered from Cochin Shipyard in late 2026, this could mean the project is advancing ahead of schedule. However, watch for updates on the final hydrogen system outfitting in Rotterdam, as this is a novel process that could introduce delays. The ultimate commercial success will depend on whether the price secured from Norwegian Hydrogen allows for competitive slot costs on the Oslo-Rotterdam route compared to conventionally fueled vessels.

The questions your competitors are already asking

This report covers one angle of hydrogen shipping’s commercialization. The questions that matter most depend on your work.

• Cost of liquid green hydrogen for ships Europe
• Methanol vs hydrogen container ship orders
• Hydrogen bunkering infrastructure Port of Rotterdam
• Ballard marine fuel cell production capacity

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