A carbon dioxide recovery system applies electrical potentials only during optimal adsorption and desorption times to manage energy usage effectively.
A biomass steam reforming reactor uses water vapor from drying to supply process heat via an external coke burner.
Laser irradiation converts biomass into high purity crystalline flake graphite, eliminating corrosive chemicals and material loss.
Compacted biomass and ash plugs seal the reactor tube against air ingress, preventing nitrogen dilution that lowers syngas energy content.
Laminar flow columns form discrete resin beads before rotary kiln carbonization.
Gasifying pre-treated recovery plastic polymers into syngas using an integrated plant with distinct reactive units.
Concentrated amine premix formulation with optimized water ratios maintains liquid state below 35°C for efficient handling.
Reacting an organometallic compound with carbon dioxide forms an aliphatic carbonate that reacts with aromatic alcohol to produce the target ester.
Synthesizing ZIF-90 in water with polyvinylpyrrolidone controls particle size, eliminating organic solvent pollution.
Thermal decomposition converts fluorinated materials into gaseous effluent containing hydrogen fluoride and carbon dioxide.
Segmented reactor bottoms and distributed inlet units enable precise control of gas flow and temperature during pyrolysis of finely divided input materials.
Laser irradiation converts biomass into carbon nanochains using transition metal catalysts, lowering synthesis costs compared to conventional methods.
Heated inert gas decomposes mixed organic waste into low-molecular hydrocarbons, resolving variable product composition and toxic residue issues.
Mixed liquid containing sodium hydroxide and a Group 2 element chloride reacts with carbon dioxide gas to form calcium carbonate precipitate.
A modified olefin-based polymer reacts with a terminal functional group polymer to form a compatibilizer.