Replacing fuel combustion with electrical heating eliminates oxygen and explosion risks while enabling precise temperature control during plastic pyrolysis.
Low-velocity fans move air across a concrete slab coated with recycled powder, capturing carbon dioxide without expensive mechanical systems.
Carboxylic acid anhydride additives prevent equipment fouling and storage film formation during extended pyrolysis oil retention.
Heating recycled polyurethane with isocyanate creates functional polymers, eliminating harmful by-products from traditional chemical recycling.
Distillation separates bio-gasoline fractions from low-oxygen bio-oil for direct blending with petroleum gasoline.
Shredded Erianthus bedding resolves supply shortages by absorbing water to reduce ammonia levels.
Low-pressure scrubbing of hydrogenated off-gas eliminates gas compression costs while maintaining effective sulfur recovery.
Oxygen-containing gas injection into pyrolysis gas lines creates high-temperature flames that decompose tar components within the system.
Segmented heating chambers maintain constant temperature during carbonaceous material processing to eliminate batch energy losses.
Vacuum pyrolysis separates the reaction from fluidized beds to minimize secondary cracking while maximizing C20 to C60 wax yield.
Single-column distillation with integrated heating resolves equipment complexity and energy consumption while producing 99.7% pure ethylene oxide.