See how copper scrubs with exposed surfaces inhibit life form growth in condensate reservoirs,
See how a rotatable connecting shaft resolves grinder-to-driver misalignment in separable food
See how a microprocessor-controlled auger and closed flap valve separate kitchen waste into sol
See how cellulose acetate fibers with controlled degree of substitution achieve biodegradabilit
See how freeze concentration uses phase transitions to concentrate urine for fertilizer while r
See how copper scrubs in a condensate reservoir release ions to inhibit microbial growth, enabl
See how cellulose acetate staple fibers with controlled denier and finish coatings achieve biod
See how a compostable biopolymer protective layer enables printed personalization on cardboard
See how a retrofit box system uses pressure equalization and robotic cleaners to remove waste f
See how a composting chamber generates heat through organic fermentation to warm pool water, el
See how continuous liquid circulation through hollow bodies and a container inside a compost he
Pivotable wings reverse gas flow without changing fan rotation, cutting head losses, moving parts, and failure risk in waste aeration.
Internal mini-tube heating and central waste feed cut heat loss, lower chamber cost, and improve aerobic composting uniformity.
Pivotable wings and one actuator reverse fan-driven gas flow without changing fan rotation, cutting turbulence, head losses, and moving parts.
Sintered HSQ forms an amorphous silicon oxide anode that limits expansion and irreversible capacity while improving Li-ion cycling.
A single fan and single actuator reverse airflow through valve control, cutting mechanical complexity and operating cost in aerobic waste treatment.
Sintered HSQ forms amorphous SiOx anodes that improve lithium intercalation efficiency, reversible capacity retention, and cycling stability.
A friction belt slips before torque spikes build, letting sensors stop an organic waste grinder quickly when rigid objects jam the shaft.
A nitrogen-releasing polymer composite shifts biodegradation toward humus formation instead of CO2, improving soil fertility with lower emissions.
AI imaging and automated sorting remove plastic and metal from food waste, enabling cleaner anaerobic digestion with local, self-contained operation.
Free ACC deaminase enzymes or overexpressing microbes boost early plant growth, lower ethylene, and improve rhizosphere health.
Ammonia stripped from manure or food-waste effluent is stabilized into organic fertilizer while captured CO2 is sequestered as calcium carbonate.
Biogas-derived CO2 is cleaned of nitrogen and odors, recovers heat, and gives greenhouses a steadier, lower-impact carbon supply.
A shaft-to-sleeve gas channel speeds home organic waste grinding and heated drying, cutting odor, effort, and composting time.
Preheating organic waste and holding digesters at 35°C with cogeneration heat keeps methane production stable across seasonal temperature swings.
Selective pH-controlled scrubbing removes hydrogen sulfide from biogas while converting waste ammonia and sulfur dioxide into ammonium thiosulfate fertilizer.
A deformable connector and sealing flange keep the grinding and storage sections airtight during automatic food waste transfer.
Gas-liquid feed from below bubbles through fermentation medium to extract more microorganisms and produce a denser washout liquid.
A traversing gantry feeds stacked worm bed reactors while sensing moisture and temperature to improve vermiculture throughput and castings quality.
Source-separated trackable bins cut waste-stream contamination, improve recycling and compost output, and preserve accurate collection data.
Chelated Zn, Mg, Fe, and P nanoparticles improve nutrient uptake, soil health, and crop stress tolerance with microbial green synthesis.
Engineered microorganisms convert CO2, syngas, and producer gas into amino acids and proteins, improving scalability with lower environmental impact.
Two-stage deodorization and waste-gas heat exchange cut odor and heating loss while keeping sludge drying and decomposition moving.
Reversible conveying and mixing in segmented composting chambers prevents clumping at discharge openings and keeps compost transfer reliable.
Two-stage sludge fermentation with moisture feedback and carbonization speeds composting, avoids unripe discharge, and cuts microbe cost.
Biochar composted with pig manure, straw, microbes, and mineral catalyst suppresses ginseng root rot by improving soil structure and microbial balance.