Decarbonisation Technology May 2026 Issue

Industrial decarbonisation via cross-sector partnerships Effective partnerships will be key to making low-carbon fuels the foundation of a decarbonised industrial economy

Maurits van Tol Johnson Matthey

I ndustrial decarbonisation in fuels is no longer constrained by chemistry. The real challenge lies in structuring partnerships that align engineering, feedstock security, and long-term finance in ways that can withstand commercial reality and deliver projects at scale. Industrial decarbonisation is frequently presented as a search for technological breakthrough. That framing is increasingly outdated. The chemical pathways required to produce low-carbon fuels and hydrogen are well established. Gasification, autothermal reforming, reverse-water-gas-shift, Fischer-Tropsch synthesis, methanol synthesis, carbon capture, and hydrogen production are not experimental concepts. They are industrial processes with decades of operating history. Catalysts continue to evolve in activity and durability. Modularisation improves construction predictability. Digital tools enhance operational control and efficiency. The constraint today is not chemistry. It is coordination. Fuel-based decarbonisation now depends on whether engineering, feedstock strategy, finance, insurance, and policy can be aligned from the outset. Projects do not fail because the reactor design is fundamentally flawed. They fail because contracts lack durability, feedstock risk is underestimated, performance guarantees are misaligned, or policy frameworks shift faster than capital can respond. Industrial decarbonisation has therefore become as much an exercise in institutional engineering as in chemical engineering.

relatively stable and linear value chains. Fossil feedstocks were extracted, transported, refined, and distributed through mature infrastructure networks. Risk allocation between upstream producers, refiners, and customers was well understood. Capital providers recognised the asset class and the revenue model. Low-carbon fuels disrupt that structure. A sustainable aviation fuel (SAF) facility today, for example, may depend on agricultural residue collection, municipal waste aggregation, renewable electricity procurement, hydrogen production, carbon capture, syngas generation, catalytic upgrading, airline offtake agreements, and lifecycle carbon accounting. Each element “ Engineering performance at the unit level is no longer sufficient. What determines success is integration performance across the entire value chain ” sits within a different industrial and regulatory domain. Each introduces a new interface. Engineering performance at the unit level is no longer sufficient. What determines success is integration performance across the entire value chain. Syngas-based platforms illustrate this clearly. The underlying principle remains straightforward. Convert a carbon-containing feedstock into synthesis gas. Adjust its hydrogen-to-carbon monoxide ratio. Convert that syngas into fuels, methanol, or other base chemicals. This is industrial logic that has been proven repeatedly over decades.

From linear value chains to integrated ecosystems Traditional fuel systems operated within