Decarbonisation Technology May 2026 Issue

Johnson Matthey, provide performance guarantees supported by industrial experience. Insurers diversify performance exposure. Investors focus on structured revenue streams. Clear risk allocation strengthens partnership models and accelerates FID. Hydrogen integration and infrastructure governance Industrial decarbonisation increasingly unfolds at cluster scale rather than plant by plant. Hydrogen

models reduce negotiation complexity and create scale for developers. Policy clarity remains fundamental. Mandates, blending requirements, and carbon pricing frameworks create demand visibility. Without durable policy signals, long-term commitments become more cautious. Early engagement between airlines, developers, and technology partners improves alignment across sustainability criteria, feedstock sourcing, and commercial structures. Demand-side participation must occur early in project development, not after engineering decisions are finalised. Demand certainty, however, is only one part of the financing architecture. Insurance and structured risk transfer now play an equally critical role. First-of-a-kind (FOAK) facilities carry performance and technology risk. Insurers prefer repeatable, well-understood configurations. Engaging insurers during the design phase allows process configurations and mitigation strategies to be assessed in detail. Technology performance insurance and credit instruments can transfer selected risks from investors to insurers, improving bankability. However, not all risks are transferable. Feedstock volatility and certain policy risks remain structural. The principle remains clear. Risk should reside with the party best equipped to manage it. Developers mitigate operational risk through engineering. Technology partners, such as

production, carbon capture, methanol synthesis, and fuel upgrading co-locate within industrial corridors. Shared CO 2 pipelines and hydrogen infrastructure reduce capital intensity and enable phased scaling. Common utilities improve efficiency and resilience. Regions pursuing circular carbon economy frameworks demonstrate how syngas- based technologies provide flexibility across feedstocks. Blue and green hydrogen can coexist pragmatically during transition. Captured CO 2 becomes a feedstock rather than a waste stream. Cluster governance introduces complexity. Ownership of shared pipelines, liability allocation for storage, and expansion rights for new participants must be clearly defined. Without governance clarity, infrastructure development lags industrial ambition. Again, coordination determines pace. A further structural challenge sits within hydrogen itself. Many advanced fuel pathways rely on renewable hydrogen, whether for power-to-liquids configurations or for upgrading biogenic syngas. Hydrogen cost is therefore not simply a feedstock variable, it is a system variable. Electrolytic hydrogen production ties fuel economics directly to electricity markets. Variability in renewable power availability affects load factors, capital utilisation, and levelised hydrogen cost. Grid constraints, transmission build-out, and storage availability become indirect determinants of synthetic fuel competitiveness.