A control valve modulates pressure on a regulating diaphragm to adjust fuel gas flow within pneumatic heating systems.
A thermo-electric valve interrupts methane flow using voltage from a pilot flame thermocouple.
A variable measuring voltage generator adjusts signal levels to optimize ionization current resolution across different burner operating phases.
A flame sensor monitors intensity fluctuations to identify combustion instability in appliances.
Segmenting adaptation by heating output resolves inaccuracy at partial loads while maintaining system simplicity.
A dynamic safety setting system adjusts fuel-pressure trip thresholds based on real-time airflow data to maintain optimal air-fuel ratios.
Dynamic fuel slope adjustment resolves ignition timing contradictions by adapting to fuel quality and power demand, preventing pressure surges.
Voltage-to-current conversion enables ion-free flame detection in hydrogen gas burner appliances.
A burner control method adjusts fuel flow using ionization signals and differential pressure sensors.
Separating non-volatile memory from the control board prevents data loss during maintenance while reducing setup time through automatic parameter duplication.
Comparing ionization values at distinct firing rates detects electrode distance deviations, correcting combustion accuracy despite manufacturing tolerances.