The conversation surrounding hydrogen has matured. In 2026, the energy industry is moving past the initial wave of optimistic announcements and entering what many are calling the "year of reckoning." The focus has shifted from exploring what is possible to determining what is bankable. At Wood, our role has evolved alongside this shift; we are acting as a trusted advisor to help clients navigate the transition from visionary concepts to resilient, large-scale industrial assets.
Navigating the pragmatic phase
The "honeymoon phase" of hydrogen was defined by high-level policy targets and colorful nomenclature. Today, the sector is more concerned with Carbon Intensity (CI) and long-term project viability. As global policy frameworks mature, the challenge for developers is no longer just securing a subsidy, but designing a project that can withstand the scrutiny of a Final Investment Decision (FID).
We see this pragmatic shift first-hand in our role as Owner’s Engineer for the Catalina Project in Spain. This 1.5GW wind and solar initiative is a benchmark for the industry, designed to meet 15% of Spain's industrial hydrogen demand. Projects of this magnitude require more than just technical skill; they require a holistic understanding of how large-scale renewables, electrolysis, and end-user requirements intersect.
The engineering of economics
The financial viability of green hydrogen hinges on a fundamental metric: the Levelised Cost of Hydrogen (LCOH). Reducing this cost is rarely the result of a single breakthrough. Instead, it is found in the relentless optimisation of the entire value chain, from power procurement to molecule delivery.
Our approach centres on providing clear-eyed analysis of these complex systems. By using digital twin simulations and proprietary optimization tools, we help clients balance intermittent renewable inputs with the need for steady-state industrial output. This rigorous technical discipline is what moves a project from a feasibility study to a functional, reliable reality.
Evidence of industrial integration
In 2026, the most successful projects are those that integrate into existing industrial ecosystems rather than attempting to build in isolation. We are seeing three key areas where this integration is gaining momentum:
- Repurposing Legacy Infrastructure: Energy security and project economics are often best served by appreciating what we already have. For example, Wood is performing the FEED for Centrica’s Rough field, transforming the UK’s largest gas storage facility into a hydrogen-ready asset. This repurposing is critical for providing the long-duration storage the market requires.
- Decarbonising Hard-to-Abate Clusters: Industrial hubs are the natural "anchor tenants" for the hydrogen economy. In the Netherlands, our FEED work for the Zeevonk facility demonstrates how offshore wind can be harnessed to feed major networks like the Hydrogen Network Rotterdam.
- Operational Transformation: Beyond new builds, we are advising on the conversion of existing assets. At the Stanlow Refinery, we are progressing the Hydrogen Fuel Switching project for EET Fuels, moving traditional refining infrastructure toward a 100% hydrogen-fired future.
A measured path forward
The scale of the energy transition is immense, and the challenges of 2026 - supply chain pressures, regulatory complexity, and capital costs - are real. However, by focusing on integrated infrastructure and rigorous economic modeling, the path to a sustainable hydrogen economy becomes clearer.
As the hydrogen economy matures, the path forward will be defined by those who prioritise technical resilience and long-term bankability. Success in this next phase depends on the ability to bridge the gap between ambitious climate targets and the engineering realities of a complex, global energy system.