Incinerator Apparatus TRIZ Cases

A gas induction bustle transfers exhaust heat from flare stacks to secondary processes using draft-inducing elements and transfer pipes.

Cyclone separation removes solid particulate matter from combustion exhaust gas flows before heat exchange.

Optical sensors measure thermal radiation from flare gas combustion, replacing theoretical simulations with accurate real-time efficiency data.

A reactor uses magnetic induction heating to treat municipal solid waste efficiently.

An expansion vessel reduces vent gas pressure to match burner requirements, enabling direct reuse as pilot fuel.

Switchable polarity in a plasma torch resolves the trade-off between electrode wear and energy transfer efficiency during high-temperature waste melting.

Merged biomass and coke fuels stabilize fire grates while reducing carbon dioxide emissions and operational costs.

Pattern matching analysis of historical waste height changes improves prediction accuracy for incinerator supply schedules.

A pressure container device manages combustible waste combustion using an integrated absorption tank and oxygen supply system.

Parallel Stirling engine modules recover energy from fluctuating residue gas flows, reducing infrastructure costs while maintaining safe disposal.

A fluid combustion device uses a symmetrical air inlet and mixing chamber to entrain fuel gas for reliable pilot ignition.

A rotating disc applies waste oil as a thin film to achieve efficient combustion without pre-processing.

Integrating an auxiliary burner into the main exhaust stack enables combustion of excess vent gases without requiring separate flare installations.

Segmented zones within the chamber lower capital outlays while continuous electric arcs process 200 tons of waste daily.

Segmenting the heating chamber allows independent temperature control per zone, resolving inefficiencies caused by inconsistent feedstock compositions.

A trailer-mounted flare system uses a hydraulic lift to raise the burner assembly for rapid field deployment without heavy equipment.

An electrical heating system replaces combustion in a radiant burner, enabling PFC removal from effluent gas streams without fuel gas infrastructure.

Offset outlet distribution directs thermal radiation away from ancillary equipment, minimizing exposure while maintaining high vent gas destruction efficiency.

Angled burner nozzles on a grid structure oxidize exhaust pollutants, resolving inadequate gas-flame contact and improving cleaning efficiency.

Rotating drum burner mixes biomass with aerodynamic air flow to resolve volume and efficiency trade-offs in compact heat production.

Segmented burner and protective hood maintain startup reliability under inclement weather while achieving high combustion efficiency.

An automated control system modulates the nozzle discharge opening and air supply to maintain stoichiometric ratios, reducing unburned hydrocarbon emissions.

An injection lance introduces liquid waste directly into a post-combustion chamber alongside solid feed.

A fluid nozzle creates a low-pressure buffer zone that counteracts impinging wind, protecting sensitive equipment from redirected heat.

A fluid flow fitting uses inwardly extending fins to create a swirling motion that separates heavier impurities from combustible gas streams.

A burn bucket features a moveable door and lifting machine interface for controlled tilting.

Gradient oxygen distribution in deposit layers prevents immediate flammable material combustion, reducing ignition loss and clinker formation.

A biomass sludge gasifier employs a conductive floor for uniform heating, preventing incomplete combustion and black ash formation.

Dispersed recirculated exhaust gas nozzles and secondary combustion air nozzles stir combustion gases to lower NOx and CO emissions.

Alternating ceramic beds recover heat from flue gases to preheat combustion air, eliminating nitrogen oxide emissions without adding external cleaning systems.

A method adjusts ash hardness through washing and crushing to reduce component wear in combustion boilers.

A stainless steel furnace melts plastic waste into reusable discs using a controlled burner and integrated carbon filtration system.

Lined hot gas cyclone removes fly ash from combustion streams, protecting thermal oil boilers from contamination and reducing maintenance needs.

Flame-heated conduits warm pilot gas upstream, stopping inspirator frost that blocks flow and ignition.

Segmented airflow paths through hollow legs and side conduits ensure complete combustion of yard waste while containing fire within a metal can structure.

A powdery additive material comprising clay and calcium carbonate improves collected ash flowability in incinerators.

A fluid purification system merges regenerative thermal oxidation with a separate combustion chamber to treat diverse gas streams.

A containerized waste disposal system integrates ISO corner blocks and forklift pockets to enable rapid deployment in austere environments.

Regenerative postcombustion mixes exhaust gases with natural gas and combustion air in a burner to achieve stable high-temperature oxidation.

Heating sludge vapors to over 500 °C eliminates condensate formation, removing wastewater treatment requirements and enabling flexible plant operation.

Porous diffuser plate directs shield gas around nozzles to thermally insulate the oxidizer head assembly during silicon tetrafluoride combustion.

A constant speed blower ensures complete combustion of low pressure gases without complex variable frequency drives.

A tapered waste melting furnace promotes smooth burden descent through a variable cross-section design.

Segmented burner head structure enables easy maintenance by preventing dust accumulation in exhaust gas treatment devices.

An auxiliary burner assembly combusts excess vent gases within a main exhaust stack.

An annular pilot flame ensures complete combustion of noxious substances, reducing damage to burner components and enabling efficient in-situ cleaning.

Segmented waste material supply devices prevent chute clogging by adjusting pusher speed based on level sensor feedback.

A bio-fuel furnace uses a modular ceramic core to store thermal energy and superheat inlet air.

Detachable panels eliminate weld seams to prevent thermal failures and simplify maintenance in incineration plants.