Incinerator Apparatus TRIZ Cases

Camera-based chute imaging tracks material coverage and burnout zones, enabling real-time feed and air control for steadier steam output.

Calculated flame temperature guides steam and air control to protect flare tips, sustain combustion efficiency, and reduce energy use.

Identical burner head apertures accept removable inlet assemblies, enabling reconfiguration and maintenance without full disassembly or heat damage.

Using ammonia as both auxiliary burner fuel and SNCR reagent cuts CO2 emissions and removes separate storage needs in incineration plants.

Temperature sensors and variable-frequency feeding keep raw and decaying garbage uniformly mixed for stable incinerator combustion.

Thermal imaging of the melt surface reveals treatment object supply state in real time, helping prevent imperfect combustion and throughput loss.

A rotatable regenerator and combustion chamber enable compact, modular VOC oxidation with lower energy use and lower cost for small facilities.

A combined exhaust stack and flare burns OGs with engine exhaust to cut piping, site footprint, emissions, and separate stack costs.

Pre-drying waste under reduced pressure evens moisture before incineration, cutting heat loss, fuel use, and combustion instability.

A lowered-position flare stack transporter improves transport stability, simplifies rig coupling, and enables igniter servicing from ground level.

A coaxial inner-outer flare stack burns cryogenic CO and syngas together to prevent flame detachment, cut support structures, and reduce thermal stress.

Multiple burner modules form a common combustion chamber to handle load swings, cut downtime, and improve energy use in raw gas purification.

Modular furnace, combustion, and flue-gas units simplify site-specific incinerator layout while supporting high-temperature dioxin prevention.

A pressurized liquid-gas spray breaks up silica deposits inside an abatement chamber, reducing cleaning downtime and liquid use.

Real-time molar balance combines flare volume, heat and material balances, and relief-source composition to improve emissions reporting.

An open-tip flare burner uses swirl-stabilized lean combustion and excess oxidant cooling to cut NOx, CO, clogging, and overheating.

Segmented baffle plates and injection openings speed fuel-oxidizer mixing, stabilize flames, and cut NOx in hydrogen-capable burners.

Jet-injected combustion-promoting gas and a notched hood improve mixing in coke oven bleeders, cutting unburned gas and soot emissions.

A high-emissivity coating helps flare tips radiate heat, cut metal temperature, and avoid energy-intensive cooling under wind-shifted flames.

Abrasive grinding generates a sustained spark plume to ignite H2S at drilling rigs without flammable chemicals, improving emergency readiness.

A baffling system, Coanda body, and down-firing burner suppress visible flames and smoke while disposing of fossil-fuel waste gases.

Conventional soil thermal desorption is energy-intensive; partial vacuum lowers boiling temperatures so hydrocarbons vaporize without combustion.

Thermal desorption in a partial-vacuum heating chamber lowers vaporization temperatures, improving soil remediation efficiency while reducing energy demand.

Rotating housing and ceramic regenerative media support compact VOC oxidation for small facilities while recovering heat and reducing energy use.

An open core and flame bridges support low-flow ignition, balanced airflow, and complete waste-gas combustion without added fuel gas.

Cyclic chamber vibration moves adherent ash to the outlet without shutdowns.

Segmented heat exchanger bypasses target deposits with controlled thermal cleaning.

Pressure-operated valves and a flow restrictor combine high- and low-pressure flare gases for safer, more complete combustion.

Pneumatic classification replaces mechanical screens to remove metals reliably without increasing facility size.

A non-circular burner inlet nozzle reduces diffusion distance for effluent streams, enabling higher treatment capacity without increasing burner length.

A multiphase burner splits wet gas flow through dual passages for intensive mixing with ambient air.

Pyrolysis followed by steam activation transforms high-moisture olive pomace into high-value activated carbon, eliminating costly drying steps.

Segmenting the flame into a low-velocity core and turbulent outer zone achieves complete oxidation while suppressing NOx formation.

Segmenting raw waste incineration slag prevents fine particle agglomeration, allowing efficient recovery of precious metals before discharge.

A controller adjusts fan speed based on real-time pressure signals to maintain optimal airflow in air-assist flare systems.

A thermal exhaust cleaning device uses a vaporization chamber to evaporate liquid media before combustion.

Automatic combustion control system adjusts grid motion and air flow rates to maintain stable thermal conditions in waste disposal plants.

An exhaust air purification system splits streams for adsorption and combustion, driving a turbine to generate electricity while removing VOCs.

A rotary kiln uses a cooled conveyor tube to transport plastic waste without melting.

Camera networks detect molten surface profiles to adjust supply rates and prevent unmolten discharge.

Segmented telescoping stacks resolve portability constraints by extending vertically to maximize flare tip density and safe gas venting rates.

A catalytic reactor converts methanol into hydrogen and carbon monoxide using residual heat from steel processing units.

Dual air sources and automated ash removal reduce manual handling while improving combustion efficiency in portable biomass incinerators.

Tangential air intake creates a vortex flow inside the chamber, enabling complete combustion of waste materials while minimizing moving parts and emissions.

Non-circular outlet aperture reduces diffusion distance, enabling higher effluent gas treatment capacity without increasing burner length.

Circulating a mobile solid transfer medium stabilizes temperature gradients, reducing pollutant formation while extending equipment lifespan.

An orbital scraping tool removes deposits from the sleeve inner face, preventing fouling and extending service life.

Segmented nozzle assemblies dynamically adjust steam injection based on waste gas flow rates, reducing consumption while maintaining smokeless combustion.

An automatic ash discharge device uses guiding faces and a blower to remove combustion residues from the burner hearth.

A dual-chamber pyrolysis system gasifies carbonaceous residue to stabilize syngas output.

Autothermal combustion removes binders from road rubble without external energy, eliminating toxic residues and denitrification needs.