Air Supply Regulation TRIZ Cases

See how adaptive temperature sensors and closed-loop control optimize solid-fuel combustion air

See how oxygen coefficient derived from temperature and energy balance controls primary and sec

See how independently controlled primary and secondary air sources improve combustion efficienc

See how combining temperature-based output calculation with flame voltage monitoring reduces de

See how temperature change rate evaluation and motor-driven flue adjustment enable automatic co

See how a detachable fan adapter with PID control automates kamado cooker air flow, replacing m

See how dual variable-speed blowers with phase-sensing control maintain thermal output during c

See how independent primary and secondary air blowers dynamically adjust combustion air ratios

See how temperature-based oxygen coefficient calculation regulates primary and secondary air fl

See how differential thermal expansion of elongate parts replaces electrical sensors to control

See how wireless communication between thermometer and fan eliminates messy wiring while automa

See how segmented primary, secondary, and tertiary air valves with sensor feedback optimize woo

See how a rotatable vent cover with detent indexing provides repeatable airflow positioning for

See how a detachable plenum enables manual and automated air flow control in kettle grills with

See how an optical beam and sensor measure smoke opacity in real-time to control wood stove air

See how feedback-based blower RPM adjustment maintains gas furnace outlet air temperature withi

See how a heat exchanger preheats combustion air and cools exhaust to reduce particulate emissi

See how a detachable plenum and fan system enables both manual and automatic air control for ke

See how backscatter light detection simplifies smoke particle monitoring in residential solid f

See how independent lower primary, upper primary, and secondary air vents with adjustable orifi

See how a detachable plenum and fan enable kettle grills to switch between manual and auto air

See how a burn controller regulates primary and secondary air valves using temperature and oxyg

See how separate air inlet and exhaust channels prevent oxygen depletion and toxic gas leakage

See how dynamic RPM adjustment using pressure-switch feedback prevents inducer overload, reduci

See how dual through-opening groups supply primary combustion air automatically as ash accumula

See how segmented exhaust gas introduction by heating value stabilizes combustion and recovers

See how dedicated air inlet and exhaust channels enable safe stove operation in tents by preven

See how temperature-based shutter control dynamically adjusts air intake to optimize combustion

See how a bimetal-controlled valve automatically opens during ignition and closes when fire is

See how a detachable plenum enables manual and automated air control in kettle grills, preservi

See how intermittent fan cycling after post-purge prevents vapor corrosion and heat exchanger o

See how variable-RPM blower control and pressure switch decoupling prevent unnecessary furnace

See how a control circuit switches between full-wave and half-wave rectification to provide str

See how a sliding carriage on a swing arm adapts spring leverage dynamically, enabling flat air

See how a servo motor dynamically adjusts gas and air intake to maintain stable combustion in a

See how rotational speed detection replaces wind pressure sensors in gas water heaters, reducin

Dynamic induction-fan speeds during flame ignition and stabilization reduce heat-exchanger acoustic resonance while preserving furnace heating efficiency.

Reverse wind can starve the burner of air; pressure feedback adjusts a stepless fan to stabilize combustion and thermal load.

See how a servo-controlled air inlet adjusts to main air stream changes, maintaining stable fla

See how dual pressure probes at venturi axis and wall measure airflow differential to adjust bl

An optical beam and sensor measure chimney smoke opacity in real time, enabling air-intake adjustments and compliance notifications.

See how rotational speed detection replaces dedicated wind pressure sensors to adjust exhaust f

See how a secondary air pipe and multi-function air regulator enable staged combustion to reduc

See how staged pressurized oxy-combustion with sequential boilers eliminates flue gas recycling

See how a wood stove control system calculates exhaust temperature derivative to modulate inlet

See how an electromagnet-coupled valve with spring return enables adaptive air intake control a

An automated burn controller adjusts primary and secondary airflow while holding tertiary air fixed to adapt combustion and reduce stove emissions.

When a low-fire pressure switch stays open, the controller attempts high-fire ignition to maintain safe furnace startup and reduce lockouts.

Adjusting blower speed and discharge air temperature by firing rate reduces wind chill while preserving furnace efficiency.

Medium-rate blower learning is scaled to low and high firing speeds to hold inducer pressure and avoid premature gas valve closure.

Ambient air entrainment and nozzle acceleration dilute contaminated exhaust and raise plume height without tall, costly stacks.

Thermostatic bimetal strips keep primary air open for fire start-up, then shut it down with heat to cut emissions and maintain stable wood combustion.

A dual-pressure valve lets the burner air supply be adjusted during operation, giving flexible heating control without costly two-stage pumps.

A safety relay valve and bleed-gas damper close the flue after burner shutdown to cut hot water heater standby heat loss.

Predefined draft inducer speed profiles cut ignition turbulence and noise while supporting low-emission furnace combustion with standard controllers.

Counter-current kiln control creates separate reaction zones to convert waste into clean fuel gas and non-leachable ash while reducing NOx.

A movable air shroud changes air entry position and volume so one burner nozzle can switch between hydrogen and natural gas without shutdown.

Heating the flame sensor and varying combustion air flow reveals drift, enabling accurate combustion air ratio control without extra sensors.

Temperature-rise feedback adjusts pump output to match exhaust pressure loss, avoiding extra sensors and reducing setup errors.

Separate pure oxygen injection from oxygen-enriched air raises sulfur oxidation capacity while holding pressure drop, flame temperature, and NOx.

Corrects intake air flow sensor errors by combining pulsation amplitude with frequency-component analysis for steadier engine control.

Wind-guided air inlet holes accelerate and angle oxygen flow to form spiral flames, improving firepower and reducing unburned emissions.

Stored support points and weighted drift tests let combustion control correct ageing sensor signals without disrupting burner operation.

Fume temperature, pressure, and composition monitoring helps detect combustion drift early, enabling predictive maintenance and lower emissions.

Two series blowers share airflow demand to cut electrical use and keep fuel-fired heating stable across a wide output range.

When inlet fluid temperature stays high at low burner output, controller-driven fan and heat adjustment prevent component overheating.

Temperature-gradient monitoring detects recirculating air blower faults early, preventing heat exchanger overheating and burner damage.

Temperature-based monitoring detects irregular exhaust gas recirculation in hydrogen heating, helping prevent unsafe operation and efficiency loss.

Flame and temperature feedback regulate separate stove air paths to maintain stoichiometric balance and reduce CO, NOx, smoke, and organic gases.

Staged air supply and separate gasification and gas-combustion chambers improve biomass briquette burnout, cut NOx, and lower ash carbon.

Monitoring the blower’s PWM control signal detects irregular ignition during heating-device startup without added sensors or delayed speed feedback.

A controller adjusts oxygen staging during regenerator reversals to stabilize flames, improve glass heat transfer, and reduce emissions.

Temperature-actuated throttling helps fireplace catalysts reach operating heat.

High-speed vault nozzles create horseshoe vortices to improve heat exchange and combustion during continuous metal-charge preheating.

This case calibrates pressure and power references to compensate for fan friction and wear, improving combustion-air flow control.

A two-stage gasification combustion system processes municipal solid waste using controlled oxidant supply and temperature management.

Tertiary air injection lowers furnace temperature and oxygen concentration, reducing NOx emissions to 30-70 ppm while maintaining carbon burnout efficiency.

A fluidized bed furnace regulates temperature and excess air to balance combustion completeness with nitrogen oxide reduction.

Tomographic reconstruction of two-dimensional concentration distributions enables fuel composition determination based on combustion stoichiometry.

Segmenting air supply into independent primary and secondary fans enables precise oxygen control, reducing CO emissions in small domestic combustion systems.

Strategic through-holes in the inner case segment gas flow to resolve temperature non-uniformity without adding complex control systems.

A gas-assisted liquid fuel oxygen reactor uses an ion transport membrane to separate oxygen for combustion.

Segmented air supply chambers heat combustion air via exhaust gas, reducing NOx emissions while maintaining high thermal efficiency.

Reforming organic contaminants with water vapor then oxidizing the resulting stream conserves calorific value while eliminating separation complexity.

A baffle plate accelerates combustion air to create a measurable pressure gradient, enabling precise draft control with low-cost sensors.

An air inlet grating prevents airflow backflow into the windproof cover, ensuring stable ignition and reliable steam generation.

Segmented gas concentration measurements guide independent secondary air flow adjustments to suppress residual unburnt components and improve boiler efficiency.

Segmented control loops compensate for uncontrolled leakage air and lateral thermal asymmetry in regeneratively heated industrial furnaces.

A gas blower burner adjusts fan speed using flame ionization signals to stabilize combustion.

A catalytic thermal combustion apparatus segments fuel oxidation to maintain low temperatures and reduce harmful exhaust gases.

A two-stage gasification combustion system processes municipal solid waste using controlled oxidant supply and temperature regulation.

A three-burner regenerator system modulates supply and exhaust air volume flows using proportional valves to maintain constant combustion chamber pressure.

Dynamic exhaust redirection minimizes atmospheric distortion, ensuring stable beam guidance and accuracy.

Dynamic air flow adjustment driven by flame rod feedback stabilizes combustion efficiency while minimizing harmful nitrogen and carbon oxide emissions.

A biomass furnace system generates heated air for grain drying by mixing combustion exhaust with ambient airflow.

A control device adjusts slag adhesion prevention capabilities based on real-time imaging of the opening part.

An intelligent controller monitors oxygen levels and temperature to manage air handlers in biofuel burners.