Segmenting semiconductor nanoparticles and metal complex catalysts resolves the reliability-productivity contradiction, maintaining activity for over 360 hours.
A microwave susceptor converts electromagnetic energy into heat to drive hydrogen generation from water and iron.
A shell-and-tube reforming exchanger incorporates a shift catalyst bed on the shell side to convert carbon monoxide in the gas mixture.
A pressurized tank reactor mixes water, ferrosilicon, and sodium hydroxide while compressed air triggers a chemical reaction to generate hydrogen gas.
A vent line reheats shift converters using synthesis gas at reduced pressure to avoid water condensation on catalysts.
A hydrogen production system pairs steam methane reforming with metal oxide reduction to generate gas from water and methane.
Oxygen enrichment in the secondary reformer reduces natural gas consumption while increasing ammonia production capacity.
Porous composite oxygen carriers sustain redox activity over multiple cycles, resolving degradation issues in large-scale hydrogen production.