Single sintering process forms diffusion bonds between electrolyte, interconnect, and electrode layers in a unified solid oxide fuel cell structure.
Shallow reactant gas channels in hydrophilic flow field plates enhance moisture evaporation into incoming gases.
Segmenting pump speed for temperature and valve position for gas channel pressure protects separators from stress while optimizing thermal management.
A fuel cell boost converter arranges reactors and switching circuits side by side to reduce width.
An integrated reservoir regulates fuel cell temperature and water balance by combining cooling and water management functions.
Adhesive with alkenyl base and Si-H crosslinker forms strong chemical bonds between fuel cell components.
Flattened annular portions on the metal lath distribute pressure evenly, preventing damage to the carbon paper sheet and maintaining effective gas flow area.
Adaptive dehydration control reduces mechanical stress on the proton exchange membrane, preventing durability loss from hydration cycling.
A fuel cell anode supply manifold uses a purge valve to pressurize and fill with hydrogen before operation.
Internal vias pass through electrolytes to connect fuel cells, eliminating edge connection resistance losses.
A conductive carrier electrically connects inner and outer electrodes of adjacent tubular fuel cells for serial interconnection.
A dense conductive ceramics layer joins solid oxide fuel cell interconnectors to electrodes, ensuring reliable electron conduction across the junction.
Horizontal fuel cell manifold uses stepped insulating plate to discharge residual moisture via gravity.
Segmented gas supply holes in the intermediate plate maintain structural strength while ensuring uniform reaction gas distribution across the electrode.
A pump delta pressure sensor correlates speed and pressure drop to determine coolant flow rate for fuel cell stack temperature regulation.