Factory capacity was not industrial capability
A national government was assessing how to support domestic electrolyser manufacturing while preserving innovation, trade access, fiscal discipline and long-term industrial competitiveness. The ambition was not simply to attract factory investment. It was to establish a capability system that could support hydrogen deployment, strengthen supply resilience and create durable industrial value as global prices and technologies evolved.
The government did not need another estimate of jobs, GDP or domestic value added. It needed to determine whether policy could create the conditions for domestic manufacturers to learn, scale, innovate and compete without indefinite protection. Factory capacity could be announced or subsidised while remaining dependent on imported components, uncertain demand, narrow technology choices or continuing fiscal intervention.
The decision was about building a capability system
The decision was not simply whether to subsidise production. The government could use public procurement, demand-side support, manufacturing incentives, skills programmes, R&D, standards, supplier development, financing, domestic- or allied-content criteria, project-development support and trade measures. Each option changed the balance between demand, cost, innovation, supply-chain exposure, technology access, fiscal risk and private investment.
Manufacturing support without credible hydrogen-project demand could produce underutilised capacity. Demand-side support without domestic skills, suppliers, service capability and technology depth could increase reliance on imported equipment. Domestic-content requirements could accelerate local learning, while raising project cost, limiting access to specialised inputs or creating trade and partner exposure. The question was how to make these measures reinforce one another rather than work at cross purposes.
Competitiveness depended on the wider ecosystem
A conventional industrial-policy study could estimate employment, investment and economic impact. Those inputs were necessary, but insufficient. Competitiveness depended on the interaction of global capacity and price pressure, hydrogen-project demand, power and grid readiness, technology pathways, critical materials, component supply, skills, R&D, standards, trade conditions and public support.
Global price pressure affected whether domestic factories could reach the utilisation needed for production learning, supplier investment and cost improvement. The client needed to distinguish between temporary support that enabled a credible learning period and measures that would sustain capacity without a realistic path to competitive quality, cost or service.
Demand formation was equally important. Electrolyser manufacturing depended on a pipeline of hydrogen projects, which in turn depended on power, renewables, grid connections, permitting, financing, infrastructure and customer offtake. A domestic factory could not develop durable scale if the downstream market remained delayed or uncertain.
Technology and material choices created further dependencies. Different electrolyser pathways required different components, critical materials, manufacturing processes and technical capabilities. Domestic assembly therefore did not remove reliance on international supply chains. The policy needed to identify where local, allied or trusted-partner access was feasible, and where residual dependencies required deliberate management rather than an assumption of autonomy.
Skills, R&D, quality systems, service capability and supplier depth shaped whether a sector could innovate and earn customer confidence. Supporting factories without these adjacent capabilities risked creating production capacity that could not keep pace with global improvements in performance or cost.
Testing policy packages across futures
Bruqe framed the engagement around capability objectives, technology scope, fiscal limits, demand requirements, trade exposure, innovation needs, resilience thresholds and acceptable dependencies. The work mapped global prices, manufacturing capacity, hydrogen projects, power, infrastructure, materials, suppliers, skills, R&D, standards, procurement, trade and public support as connected variables.
It then tested combinations of demand-side procurement, project-development support, manufacturing incentives, skills and R&D investment, supplier-development programmes, domestic or allied-content criteria, standards, trade measures and time-limited protection. These pathways were examined across plausible futures involving weaker hydrogen demand, global price pressure, component shortages, technology shifts, trade friction, infrastructure delay and manufacturing underutilisation.
The objective was not to protect domestic capacity at any cost. It was to identify which policy packages could build learning, utilisation, supplier depth and innovation, where support needed to remain conditional and which indicators should trigger expansion, redesign, stronger demand creation, trusted-partner arrangements or withdrawal.
Distinguishing support from durable competitiveness
The analysis reframed subsidy from a one-off fiscal decision into a staged capability-building strategy. It clarified where demand, skills, R&D, service capability, partner access and supply-chain development mattered more than additional factory support.
Building capacity that can compete
The resulting decision architecture connected domestic manufacturing to the full ecosystem required for durable competitiveness. The central implication was clear: electrolyser capacity needs more than subsidy. It needs the demand, skills, suppliers, technology, infrastructure and learning conditions required to compete over time.
