Founder Securities has issued a report indicating that the solid oxide fuel cell (SOFC) industry is accelerating, with a focus on opportunities in components and equipment. SOFCs generate electricity directly through the electrochemical reaction of fuel and oxygen, operating in a range of 600°C to 1000°C, with a maximum power generation efficiency of 65%. They offer advantages such as low emissions, quiet operation, and a wide fuel selection, primarily targeting distributed stationary power generation scenarios. The brokerage points out that as energy consumption from data centers and AI computing clusters continues to expand, the pressure on traditional power grids is becoming increasingly apparent. SOFCs, with their comprehensive performance advantages, are becoming a key solution for distributed power supply in high-energy-consumption scenarios, and the industry is accelerating its development.
SOFC technology features are significant, targeting distributed power supply for AI computing
SOFC is a high-temperature electrochemical power generation device that differs from fuel combustion-based power generation. It enables internal fuel reforming with a maximum power generation efficiency of 65%, and offers advantages such as low emissions, quiet operation, and a wide selection of fuels. As energy consumption from data centers and AI computing clusters continues to expand, the pressure on traditional power grids is becoming more pronounced. SOFCs, with their comprehensive performance advantages, are becoming a key solution for distributed power supply in high-energy-consumption scenarios.
AI computing power demand is growing rapidly, with multiple external constraints driving the need for new power supply solutions
Multiple institutions predict that electricity demand from US data centers will continue to rise significantly, with their share of total US electricity consumption potentially reaching 9% to 17% by 2030. Beyond the power supply gap, multiple bottlenecks, including rising project construction costs, community approvals, grid upgrades, critical equipment supply constraints, and insufficient EPC engineering capacity, are limiting the deployment of new data center capacity. The industry urgently needs on-site power generation solutions that do not rely on the traditional grid and have shorter construction periods.
Compared to various fuel cell routes, SOFC has multiple differentiated competitive advantages
At the fuel level, SOFCs are compatible with various gas sources, including hydrogen, carbon monoxide, and natural gas. They can tolerate carbon monoxide and have better anti-poisoning capabilities than PEMFCs and PAFCs. Their power generation efficiency is among the highest for mainstream fuel cells, and high-temperature waste heat can be recovered for cascaded energy utilization. The high-temperature reaction characteristics eliminate the need for precious metal catalysts, have no risk of liquid electrolyte corrosion, and can directly use air as an oxidant. Additionally, the system natively outputs DC power, which, when used with data centers and computing clusters with DC architectures, can eliminate the need for inverters, reducing power conversion losses and simplifying equipment configuration. This gives it a natural advantage over most power generation technologies.
Outstanding deployment advantages in terms of deployment cycle, power supply model, economics, and policy
The delivery cycle for SOFC modular systems is only 55 to 90 days, much faster than grid expansion, gas turbines, or nuclear power solutions. They support on-site independent power supply, effectively avoiding grid interconnection queue limitations. Pure power generation efficiency is 55% to 65%, and the combined heat and power efficiency can reach 85% to 95%. The US Inflation Reduction Act (IRA) can provide a maximum 30% investment tax credit for projects, significantly reducing initial investment costs. The benchmark product, the Bloom Energy Server, has competitive fuel consumption levels when operating on natural gas, and its total efficiency can exceed 90% in heat recovery scenarios.
The system currently faces high initial costs, but the path to long-term cost reduction through scale is clear
According to US Department of Energy estimates, the current costs of stacks and balance of plant (BOP) components are high. However, looking ahead to 2030, the costs of these two types of components are expected to drop significantly. For the electrolyte-supported route used by Bloom Energy, the metal interconnect and YSZ-based single cell are the main sources of stack cost. Current commercial hardware prices are high, but as the industry scale expands and processes improve, costs have room for continuous decline.
Market demand continues to materialize; landmark projects signal SOFC's upgrade to a primary power solution for computing parks
Driven by the wave of data center expansion in the US, increasing per-rack power consumption, and the adoption of DC power supply, demand for SOFC-based distributed on-site power generation is continuously expanding. Leading manufacturers are consistently securing megawatt-level long-term orders. In 2026, Oracle announced that its AI data center park would use Bloom Energy SOFCs for power supply, replacing the originally planned gas turbines and diesel generators. This is a landmark event for the industry, proving that SOFCs have officially transitioned from a supplementary backup power source to an optional primary power source for ultra-large-scale AI computing parks.
Risk warnings
Risks include macroeconomic and industrial policy fluctuations; technology progress falling short of expectations; fluctuations in raw material prices; and the risk of technological iteration.