Plasma induction breaks ammonia bonds while a global heat exchanger recovers enthalpy from product streams, reducing thermal losses and voltage requirements.
A breakable reservoir stores liquid electrolyte inside a fuel cell housing, eliminating contamination risks from external liquid addition.
An e-fuel energy storage system uses independent charger and cell components to optimize electroactive liquid fuel processing.
Segmenting the fuel cell stack into alternating supply groups minimizes hydrogen loss during purging by circulating unconsumed gas through a shared manifold.
Closing a cutoff valve before filling traps hydrogen to purge in-cell passages, preventing freezing without adding control complexity.
Optimizing the ratio between nozzle and injector orifice diameters enables supersonic flow speeds that improve fuel circulation efficiency.
A fuel cell gas diffusion layer supply apparatus uses a pneumatic nozzle to generate lift for precise layer separation.
Flexible diaphragm draws consistent breath volumes through the fuel cell, eliminating pump complexity while ensuring complete alcohol consumption.
A gas supply pipe with protruding portions increases cross-sectional area at the manifold interface to strengthen the metallurgical joint.
An adaptive controller switches between electrolysis and fuel cell modes to store energy as hydrogen, avoiding battery degradation.
A spring energizer maintains constant contact between a non-bonded PTFE liner and radial seals, resisting thermal expansion and creep in high pressure tanks.
Reversible chemical reactors store hydrogen in aromatic compounds to bypass compressed gas safety risks and battery cost limits.
A secondary hydrogen source maintains stable anode pressure to prevent oxygen infiltration and carbon corrosion during soak periods.
A deterioration estimation system monitors hydrogen supply line pressure to track fuel cell degradation without extra sensors.
Controller corrects hydrogen pressure sensor errors using valve opening ratio data maps to maintain accurate supply.
Diverging and converging tubes decelerate central flow while accelerating peripheral streams to eliminate separation in fuel cell stacks.