Segmented fixed bed chambers produce acetylene-rich biogas to overcome low energy yield in conventional biomass conversion.
Segmented hearths maintain 250°C to 380°C temperatures, eliminating cooling downtime and reducing energy consumption.
A mobile gasification system converts residual biomass into syngas and electrical energy on-site.
Pyrolysis converts waste tires into reduced-PAH oil fractions that modify asphalt binders, resolving high processing times and harmful byproduct formation.
Pressure swing adsorption fractionates synthesis gas to enable cryogenic carbon dioxide purification, eliminating amine scrubbing losses.
Feedback-controlled pyrolysis uses sequestration-enabled carbon to capture harmful impurities, ensuring predictable gas composition from variable feedstocks.
A catalytic system dissolves carbon dioxide into aqueous solutions using controlled enzyme activity to accelerate mineral dissolution rates.
Regulating F2/N2 mixture gas bubble sizes stabilizes ethylene carbonate fluorination, eliminating local explosions and complex purification steps.
Tetrazole derivatives in amine absorbents prevent oxygen-induced degradation, maintaining absorption efficiency and reducing volatile emissions.
A thermochemical process adjusts the H2/CO ratio in synthesis gas using a water-gas shift reaction to increase carbon conversion yield.
Concentric tank apparatus controls temperature to stabilize dormant microorganisms, extending shelf life while preventing pathogen formation in soil inoculants.
A level controller adjusts makeup water and exhaust gas condensation to stabilize the CO2 absorbing solution concentration in an absorber.
Composite attapulgite and zinc oxide absorbents remove organic halogens while neutralizing hydrogen chloride, extending tower operational time.
A food recycler chute with a vibration damper flexes to dislodge residual waste, preventing blockages in the output bin.
Segmented augers and screens divert solid organics from drainage, reducing water treatment plant loads while producing compost.
Segmenting bio-oil by boiling point allows selective hydrotreating of the light fraction, reducing oxygen content and secondary upgrading costs.
Hydrolyze bonds linking thermoplastic fibers and silicone coatings via pH adjustment, then separate components using density gradients.