Carbon from recycled battery material is converted with sulfur into CS2, turning neglected carbon into a useful chemical feedstock.
Discarded battery carbon is reacted with sulfur to form carbon disulfide, improving carbon recovery and overall recycling efficiency.
A two-stage methane-sulfur route reuses first-stage heat to make carbon disulfide with lower energy demand and on-site hydrogen disulfide supply.
Carbonized liquid organic matrices trap sulfur to prevent polysulfide dissolution and maintain capacity in lithium-ion batteries.
Elemental sulfur reduces carbon dioxide to carbon monoxide using metal sulfide catalysts, lowering energy consumption compared to high-temperature reforming.
A liquid organic sulfur material uses polyethylene glycol carbonization to trap sulfur within a porous carbon matrix for high capacity.
A downhole reactor thermally decomposes hydrogen sulfide into sulfur and hydrogen within the wellbore.
Segmenting the reactor into temperature zones optimizes convergence of carbon and sulfur sources with catalyst particles, reducing impurity levels.
A chemical process produces dimethyl disulphide by reacting methyl mercaptan with sulphur while recycling hydrogen sulphide.
Hydrocarbon charge reacts with hydrogen sulfide to produce methyl mercaptan, eliminating secondary purification steps.