Electrical Control TRIZ Cases

Early fuel injection into selected cylinders reduces start-up time while maintaining low pollution through precise crankshaft position detection.

Periodic air-fuel ratio switching releases stored sulfur from the catalyst, maintaining NOx storage capacity during lean operation.

Sloped rollers transfer rotational energy between a shaft and ring gear via friction, eliminating bearing complexity.

A hybrid vehicle engine starting control system adjusts cranking speed using fixed value and time-based thresholds to transition out of the start mode.

A fuel metering controller adjusts rail pressure to maintain rapid engine restart capability during automatic start-stop operations.

Cooperative control of sub-injection timing with variable valve actuation prevents fuel leakage and misalignment interference in internal combustion engines.

A direct current boost circuit steps up voltage for ignition devices, preventing battery voltage drops that cause poor engine starting reliability.

Variable indexing adjusts fuel injection modes based on engine state to maintain drivability robustness in gasoline direct injection systems.

Thermally conductive connection modules integrate heating elements to prevent ice formation in water injection reservoirs, ensuring rapid operational readiness.

Automated monitoring system detects unintended forward and reverse rotations using speed and vibration sensors.

A processing unit compares oil pump control signals to threshold values to identify lubrication system faults and adjust engine operation.

Cycling the evaporative emissions valve open and closed regulates fuel tank pressure to prevent vapor breakthrough into the atmosphere.

A variable piston displacement mechanism coordinates cylinder deactivation to adjust compression ratios and maintain optimal spark timing.

Evaluating pulse-width-modulated switching times derives the injection valve state while reducing interference variable sensitivity.

Multi-wavelength ultraviolet irradiation dissociates intermediate species to generate reactive radicals for precise combustion timing control.

Controller compares upstream and downstream temperature readings to detect sensor swap errors, preventing improper regeneration control.

Predictive control calculates performance margins using sigmoidal functions to prevent turbocharger surge and choke events while maintaining transient response.

A correction method uses compressor and turbine ratios to stabilize air mass sensor output signals against pulsation effects.

A controller calculates a combustion noise index from pressure data to adjust injection timing and pilot fuel amount.

A control system calculates input torque from rotational acceleration and moment of inertia to manage combustion torque.

A piston temperature monitoring system calculates thermal states and manages history data through fuel injection timing adjustments.

Cumulative delta calculation detects sustained pressure deviations, preventing engine misfires and component wear.

A controller calibrates a variable geometry turbine nozzle actuator to optimize the working range during normal operation.

A controller manages pilot, main, and post injection pulses to deliver fuel into diesel cylinders.

Time-resolved pressure sensor data in individual injector accumulators enables precise fault identification for each fuel injection device.

Electronic engine controller adjusts operating parameters to maintain knock suppression during fuel delivery deficiencies.

A self-tuning fuel injection system applies long-term trim corrections to lookup tables using mathematical comparisons.

Secondary chambers generate radical ignition species to lower heat and fuel requirements, reducing emissions while maintaining thermal efficiency.

Segmented electric control systems enable backup pilot injection through redundant liquid fuel injectors, maintaining engine stability during injector failures.

Fuel tank pressure and vacuum drive canister purging without active engine load, resolving hybrid vehicle emission trade-offs.

An add-on electronic fuel injector control system intercepts engine control unit signals to dynamically modify pulse width based on real-time operating conditions.

A positive temperature coefficient heater monitors coolant temperature changes to determine valve position.

A capacitive sensor detects exhaust particles using frequency-dependent capacitance measurements between protected electrodes.

A turbo compound arrangement modifies exhaust flow to heat after treatment components.

A vehicle controller implements a sequence of particulate filter regeneration techniques to maintain exhaust filtration.

A vehicle control device limits engine output and prohibits air fuel ratio enrichment during cooling system failure.

A fuel tank leak detection system measures internal pressure over time to generate a dynamic pressure curve for classification.

A non-intrusive method monitors exhaust gas sensor degradation using time delay and line length of downstream sensor responses during deceleration fuel shut-off transitions.

A uniflow two-stroke engine uses dual fuel injection ports to create uniform premixed gas distribution within the combustion chamber.

Retarding spark ignition timing raises exhaust gas temperature, reducing start-up time and energy consumption for the thermoreactor.

A diesel engine control module adjusts injector firing sequences based on transmission line pressure to conserve fuel.

A fuel injection control device divides requested quantity into specified and adjusting portions to perform partial lift injection for characteristic learning.

A dedicated EGR cylinder uses two independent intake flow paths to manage exhaust gas recirculation and boost hydrogen production via water gas shift reactions.

A fuel injection control device detects pressure fluctuations to adjust injection timing.

A combustion control system adjusts spark timing and fuel injection based on cylinder pressure measurements to optimize engine performance.

A dual path fuel injection system switches between port and direct injection modes to manage engine load transitions.

A controller adjusts variable geometry turbocharger components to evaluate bearing health through speed response analysis.

A diesel particulate filter control system enhances surface filtration cake layer formation immediately after forced regeneration.

Switching between an inference model and a heat-timer based on ambient temperature resolves measurement precision issues during drive cycles.

A fuel control system diagnoses injector health by measuring pressure drops in a pressurized reservoir during test injections.