A biomass gasification system converts organic waste into synthesis gas using thermal decomposition and chemical reactions.
Segmenting waste plastic streams isolates polyolefins to prevent contamination during decomposition, ensuring high purity of recovered petrochemical feedstocks.
Crosslinked polyacrylamide and partially hydrolyzed polyacrylonitrile maintain rheology at 240°C, preventing well collapse under saturated salt conditions.
Mesoporous silica supports alkyl diamine-substituted aryl compounds to resolve stability and synthesis cost trade-offs in direct air capture.
Bag filters remove calcium sulfate particles from oxyfuel exhaust gas, preventing compressor corrosion and maintaining CO2 purity.
Staged heating and nitrogen purging in a closed reactor complete pyrolysis while preventing ingredient damage from high temperatures.
Microbial oxidation of ground elemental sulphur in compost converts inert material into plant-available sulphates, overcoming slow oxidation rates.
Circulating ammonia-water solvent absorbs carbon dioxide from flue gas and syngas, eliminating mechanical compression energy consumption.
An electrochemical cell employs a CO2 adsorbent to reduce electrical energy consumption during carbon dioxide separation and recovery.
Hydropyrolysis of biomass feedstocks reduces corrosive species and catalyst poisons to produce stable, high-value liquid hydrocarbon fuels.