Bio-Organic Fraction Processing TRIZ Cases

Segmenting thermophilic and mesophilic stages destroys pathogens while preserving microorganisms, reducing greenhouse gas emissions.

Segmented agitator design with top-mounted bearing support enables maintenance without emptying the fermenter.

Pliable exoskeletal envelopes support anaerobic digesters to reduce appliance weight while maintaining structural integrity.

A sorting machine separates heterogeneous waste mixtures into fractions using primary and secondary orifices for automated processing.

Anaerobic digestion and aerobic conditioning transform dairy waste into a stable fiber product that replaces peat moss while eliminating bog destruction.

Segmented heating zones in a gas-permeable base reduce energy consumption by eliminating repeated air reheating cycles during fermentation residue treatment.

Cyclone separators remove grit and floatables from wet fractions to ensure digestate meets land application standards.

Turbulent mixing dissolves ozone gas into greywater, reducing biochemical oxygen demand for safe reuse.

Exothermic reaction control in pressure vessels increases nitrogen content while resolving scaling challenges and pathogen presence in biosolid waste.

Rotating the container about a non-parallel axis mixes organic material with substrate, reducing decomposition time from decades to weeks.

Endophytic microorganisms colonize seeds to boost crop yield and stress resilience without relying on genetically modified crops or synthetic chemicals.

Distilling ammonia and carbon dioxide from organic effluent creates stable ammonium bicarbonate, sequestering emissions while meeting organic standards.

A CMOS voltage controlled oscillator applies a stable gate bias using a current mirror to sustain oscillation.

A rotating dispersing system draws low bulk density feedstock axially and expels it radially to achieve rapid wetting.

A facility integrates methanization, microalgae cultivation, and vermiculture to process livestock effluents.

Thermal coagulation and phase separation remove packaging remnants from organic slurry, preventing digestate contamination during methanization.

Evaporated liquid organic filtrate concentrates ammoniacal nitrogen to reduce root burning and leaching while maintaining soil health.

A composting container features a hemispherical wall and fluffing device that cuts organic material to enhance oxidation.

Ammonia stripping removes toxic ammonia from digestate to produce stable ammonium sulfate fertilizer, resolving storage instability.

Aerating anaerobic sludge to adjust pH before adding magnesium chloride solution for struvite precipitation.

Modular subsystems separate fluids and solids to reduce methane emissions and residual volume in agricultural waste.

Carbonyl iron facilitates electron transfer between syntrophic bacteria to accelerate volatile fatty acid degradation.

Thermophilic pre-treatment eliminates pathogens and weed seeds while preventing noxious emissions during subsequent vermicomposting.

A phosphorus and magnesium stripping process recovers elements from waste sludge for struvite production.

Batch bio-reactor treats diverse organic waste using insect larvae, reducing storage space needs while enabling controlled climatic operation.

Ice concentration recovers solid biofertilizers while reverse osmosis purifies water, preventing nitrogen accumulation that inhibits fermentation stability.

Vacuum milling sanitizes solid waste fractions while anaerobic digestion converts liquid streams into biogas for energy recovery.

A biogas plant design separates percolate into distinct fermentation and sanitation circuits to prevent recontamination during liquid fertilizer production.

Brevundimonas sp. AnNong-1 bacteria increase total L-Theanine content in tea leaves through root irrigation treatment.

A rotary compression unit heats and dries animal waste by-products through mechanical friction to produce stable fertilizer or fuel materials.

Organic chelation reduces soil fixation and loss of active selenium while improving crop yield.

An open-loop controller manages composting parameters via nitrogen concentration and mass signals to accelerate organic matter breakdown.

Acidic pH control via wheat bran eliminates pathogens and odors while accelerating decomposition speed.

Decentralized filtration units process biogenic waste streams to generate humus substrates, addressing inflexible centralized infrastructure limitations.

A biodegradable culture substrate made from wood elements larger than 80 mm with porosity exceeding 50% supports methanization processes.

Seed crystal growth overcomes fine particle limits to boost phosphorus recovery.

Segmented membranes condense water vapor to trap malodor, resolving the trade-off between moisture discharge and odor containment.

Exiguobacterium indicum YAN2 produces spherical biosynthetic nano-selenium through controlled fermentation.

A closed loop compost tea brewing system circulates fluid between reservoirs using a pump and hydrostatic pressure for continuous nutrient delivery.

Rotating media wheels expose algae to sunlight for oxygen production, reducing equipment complexity while treating wastewater.

A ventilation group uses a single actuator to drive a multi-position valve that redirects air flow through a fixed-direction fan.

An auger cleaner moves waste through a floor channel using hydraulic power.

A coupled anaerobic digester and aerobic composter system recycles digestate percolates to sustain biogas production.

Alternating aerobic-anoxic zones treat organic waste streams to remove nitrogen via simultaneous nitrification and denitrification.

A composting barrel uses a helical cutter to blend waste while guiding vapor back into the mixing room.

Cavitation in a vortex reactor reduces humus particle size to 100-700 nm, resolving the trade-off between manufacturing precision and production productivity.

A field in-place film-covering fermentation device uses a microporous covering film and passive ventilation structure to maintain aerobic composting conditions.

Compressing aqueous mixtures to 25-35 MPa and heating them to 200-550°C separates valuable substance fractions under supercritical conditions.