Utrecht University Hydrogen Initiative

HyUSE

REVERSIBLE ELECTROCHEMISTRY · ENERGY-SYSTEM INTEGRATION

HyUSE

HyUSE studies hydrogen conversion for industry, heavy transport and local energy supply. Utrecht connects electrochemical modelling with energy-system, business and regulatory assessment.

All research ›

Conceptual solid-oxide cell architecture with porous electrodes, dense electrolyte and gas-channel plates.
Solid-oxide cell architecture · conceptual illustration, not to scale.

RESEARCH FOCUS

Utrecht’s contribution.

The research links cell behaviour to the operating requirements of integrated hydrogen applications.

  • Reversible solid-oxide fuel-cell/electrolysis-cell (SOFC/SOEC) systems: load cycling, mode transitions and lifetime.
  • Protonic ceramic fuel cells (PCFCs): performance modelling and application comparison.
  • Integrated energy systems, including greenhouse applications, business cases and regulation.

Dynamic SOEC and co-electrolysis models are under development using literature data; experimental validation at Utrecht is not yet established.

UTRECHT RESEARCHERS

Golshan MirMoghtadaei ›

PhD candidate · Reversible SOFC/SOEC systems

Wenqian Wang ›

PhD candidate · PCFC modelling

Hamed Aslannejad ›

Utrecht project contact · HyUSE technical coordinator

Two operating modes.

SOEC: steam and electricity → hydrogen and oxygen.
SOFC: hydrogen and oxygen → electricity, heat and steam.

Oxide ions cross the electrolyte in opposite directions in these two solid-oxide operating modes. PCFCs instead conduct protons.

Researchers and partners at a HyUSE research-community gathering.
HyUSE research community.

EXPLORE FURTHER

GroenvermogenNL project overview ›

Hydrogen Lab ›