Sludge Treatment By Oxidation TRIZ Cases

See how a compact burn chamber with trapdoor sealing and processor control automates waste inci

See how a compact burn chamber with trapdoor sealing and processor-controlled ignition enables

See how a compact burn chamber with trapdoor sealing and automatic waste detection enables effi

A heated filler above 350°C captures smoke and soot from burning paper liners while catalyst treatment removes odor and helps prevent internal deposition.

Metallurgical reduction and oxidation separate phosphorus from iron oxide carriers, recovering P2O5 and iron compounds for industrial reuse.

Reactor effluent heat and pressure recovery cuts oxidant compression burden in supercritical water oxidation for large-scale waste treatment.

Sub-stoichiometric oxidant drives autothermal hydrothermal liquefaction of mixed wastes, raising bio-oil yield while reducing char.

High-shear mixing, oxidation, and bacteria break down sludge faster, improving solid-water separation and producing clearer water.

Spiral preheating improves slurry oxidation and pyrolysis of radioactive organic waste.

An amphibious platform dewaters polluted sediment, forms a planting base, and lays submerged grass blankets without large-scale dredging.

Comminution and supercritical water oxidation convert resin organics into gases and dissolved salts, reducing residual radioactive solids.

An annular filtration system reduces moisture in organic sludge while recovering purified water through evaporation and condensation.

PMIDA descaling agents dissolve geothermal scale via metal ion complexation, eliminating corrosion risks associated with hydrofluoric acid treatments.

Soaked powder carriers load microorganisms to form biofloccules that improve sedimentation and treatment efficiency.

Pre-reduction with organic agents followed by acidified wet oxidation degrades nitroaromatics without increasing salt loads or generating harmful nitrite.

Transition metal oxide catalysts oxidize sulfides into water-soluble sulfate salts using molecular oxygen.

Staging pressurization and heating manages high biomass slurry viscosity, cutting capital costs by 75% while improving thermal efficiency.

Hydrothermal carbonization degrades persistent chlorinated pollutants, enabling safe agricultural reuse of treated fly ash.

Pre-adsorbing oxidants on feedstocks eliminates liquid-phase mass transfer limits, boosting conversion efficiency while suppressing excessive CO2 generation.

Segmented vertical baffles in the oxidation basin ensure uniform flow distribution, reducing space requirements and oxidation air usage.

Cooling slag through 1600°C to 1420°C crystallizes magnetite, separating iron oxide and improving phosphate plant availability.

A modular sludge incineration kit segments furnace, cooling, and filtration units for on-site assembly.

A hydroxide salt mediator solubilizes inorganic salts under supercritical conditions.

Conductive heating in a rotating drum volatilizes persistent contaminants, producing biochar free of polyfluoroalkyl substances and microplastics.

A carbon regeneration circuit enables in-situ wet air oxidation of spent granular activated carbon within the process water contactor.

Oxygen-enriched ultrasonic atomization reduces auxiliary fuel consumption and nitrogen oxide emissions during contaminated liquid incineration.

A biosludge treatment system combines hydraulic fracture with ozone lysis to break down microorganisms.

Rapid heating in a tubular reactor prevents coking and reduces material costs while achieving near-zero-release of industrial wastewater.

Controlled chemical oxidation with strong oxidants accelerates waste degradation from years to hours while preventing toxic by-product formation.

Soft impact degassing removes air bubbles to prevent mechanical clogging while maintaining floc integrity.