A staged, milestone-driven program taking the HG-250 from architecture definition through field demonstration, in parallel with commercial execution across the 600+ MW pipeline.
Architecture definition, stack qualification, and system modeling.
Subsystem design, thermal management, and controls development.
System integration, bench testing, and initial validation.
Deployment of the 250 kW unit at a strategic partner site; 5,000-hour initial validation target.
| Workstream | Scope of Work |
|---|---|
| Stack Cartridge | Mechanical, thermal, and electrical interface design for qualified third-party stacks. |
| Hot-Box / BoP | High-temperature enclosure, insulation, and balance-of-plant integration. |
| Controls / Software | Embedded and supervisory controls, plant orchestration logic, and the owned intelligence layer. |
| Power Electronics | Inverter selection, DC/AC conversion, and grid-interface design. |
| Packaging / CHP | Containerization, heat recovery system, and site integration design. |
Confirm Gen 1 architecture, down-select stack suppliers, establish core design targets, and define the initial demonstration site.
Finalize BoP subsystem scope, define the control logic framework, complete system-level PFDs, and initiate long-lead procurement.
Commence detailed design, finalize engineering workstreams, lock in the prototype build schedule, and establish the demonstration pathway.
Finalize the HG-250 Phase 1 Statement of Work with Pratt Miller, complete architecture definition, down-select stack suppliers, and complete system-level PFDs.
Launch detailed engineering, secure strategic customer LOIs, advance the demonstration site, and prepare project finance packages for the pipeline.
Complete subsystem procurement, initiate the prototype build, finalize the control logic framework, and begin bench testing and validation.
Position the first demonstration unit, commence field validation toward the 5,000-hour Gen 1 target, execute strategic offtake, and reach institutional-grade readiness for the next financing.
High-efficiency generation deployed immediately to solve the AI power constraint, with a lower emissions profile than the regional grid average.
BESS integration, behind-the-meter solar, and initial hydrogen blending (up to ~25% by volume).
Deployment of validated HG-250 SOFC arrays and transition toward green hydrogen fuel supply, full campus decarbonization.