A dielectric barrier discharge reactor generates hydrogen from methane using catalytic nonthermal plasma within a ceramic and quartz assembly.
Flexible metal-organic frameworks with stepped isotherms store methane at high densities through structural phase transitions.
A noncatalytic partial oxidation reactor produces synthesis gas by reacting hydrocarbons with oxygen and carbon dioxide at high temperatures.
Zirconium and yttrium getter alloys enable efficient hydrogen sorption at temperatures below 200°C.
A partial oxidation reactor adjusts reaction temperature to produce syngas with a targeted hydrogen to carbon monoxide ratio.
Electromagnetic induction heats catalyst particles directly, reducing carbon clogging and improving cracking efficiency.
A compact reformer uses plasma to split methanol into hydrogen fuel for vertical take-off and landing aircraft propulsion systems.
Crystalline mesoporous cellular foam silica prevents metal sintering and coke formation during bio-based feedstock steam reforming.
Excess carbon reduces investment costs by merging iron production with synthesis gas generation in a single integrated system.
Induction heating via ferromagnetic microcapsule coatings eliminates separate thermal devices and improves hydrogen discharge efficiency.