A fuel-stream cooling scheme lowers reformer and reformate temperatures, enabling standard piping while preserving hydrogen-rich gas for gas turbines.
A duplex rotary reformer uses heated inserts, counter-current flow, and quench cooling to turn organic waste into cleaner hydrogen-rich syngas.
Dual reduction zones and a moveable grate raise syngas calorific value while cutting tar, particulates, and clinker-related downtime.
Stoichiometric zone control, pyrolysis, and electrostatically enhanced water help gasifiers handle variable feedstock and deliver consistent syngas.
A recuperated Brayton loop converts biomass syngas into power while recycling CO2, retaining heat and reducing compression losses.
Two-stage hydropyrolysis converts hydrocarbon feedstocks into solid carbon and hydrogen gas using internal reaction heat.
Rotating the air distribution manifold ensures uniform combustion temperatures, preventing clinker formation in high-silica biomass processing.
Stepped floor shelves move municipal solid waste through temperature zones, improving syngas composition while reducing energy consumption.