Chemical precipitation replaces mechanical grinding to control particle size, preventing aggregation and ensuring dispersion stability in moisture.
Recycles purge effluent gas to repressurize adsorbent beds, reducing product consumption and enhancing recovery rates.
Wet chemical synthesis of nanocrystalline perovskite membranes increases hydrogen flux while maintaining stability against contaminant gases.
Ceramic nanopowders dispersed in room temperature ionic liquids improve ionic conductivity and mechanical stability across wide temperature ranges.
A continuous flow reactor system uses microwave energy to rapidly nucleate and grow nanoparticles with uniform size.
Solvent-deficient synthesis controls aluminium oxide pore structure, resolving the trade-off between manufacturing precision and production cost.
Perforated cylinder zones retain granular adsorbents at high flow rates, preventing fluidization and reducing pressure drop.
Producing uniform silica particles without gelification by applying periodic catalyst addition to manage agglomeration and yield.
A polishing agent uses metal oxide particles and monodentate organic acids to maintain silicon oxide removal rates.
Cold alkali scrubbing and hydrogen refrigerant chilling reduce zeolite adsorption costs by removing water and carbon dioxide before high-pressure treatment.
A method reacting magnesium hydride with metal oxides to produce hydrogen gas and valuable metal by-products.
Catalytic vent tank depletes reactive fuel vapors from ullage gas, eliminating onboard inert gas storage weight.
Four adsorbers in a VPSA unit use product streams for elution and repressurization to lower energy consumption.
Injecting carbon dioxide from the removal section into the primary reformer inlet mediates thermal duty balance between reformers while reducing emissions.
A fuel oxygen reduction unit extracts dissolved oxygen from liquid fuel using a stripping gas flowpath and membrane-based separation.