Driver Input Parameters TRIZ Cases

A powertrain system maintains normal torque transfer between a power take-off unit and secondary drive unit during driveline faults.

A testing system adapts fixed time intervals to validate driver inputs during manual driving modes.

A vehicle mode transition system uses hand presence detection to enable smooth switching between autonomous and manual driving states.

An intelligent speed adaptor pedal interface modifies accelerator sensor signals to limit vehicle speed across diverse platforms.

A brake-by-wire mechanism increases braking force based on pedal manipulation to restrain vehicle movement.

Controller increases lockup clutch torque when trailer presence and speed trigger, reducing oversteer forces.

A control device adapts motor vehicle functions based on stored driver data to enable safe operation.

Circuitry applies balancing brake force to manage propulsive output, resolving manual skill dependency in drift operations.

Continuous torque calculation eliminates sudden jerks during creep mode transitions, ensuring smooth vehicle acceleration.

A control unit switches communication between dual vehicle networks to maintain actuation data flow during primary link failure.

A work vehicle control device monitors torque converter speed ratio and accelerator pedal operation to detect fuel efficiency deteriorating conditions.

A vehicle control device displays converging images to propose automatic overtaking.

Electronic stability control adjusts inner wheel braking pressure to prevent slip during vehicle turning maneuvers.

A vehicle control apparatus manages automatic transmission downshifts to maintain target speed during downhill travel.

A brake controller adjusts hydraulic pressure to wheel brakes using sensors and an electric pump.

An adaptive cruise control system adjusts acceleration and deceleration profiles via a learning mode that processes driver feedback to modify control parameters.

A vehicle motion control apparatus calculates longitudinal acceleration commands to mimic driver-intended jerk profiles.

A variable locking differential function manages asynchronous wheel speeds via a hydraulic mass flow divider.

Vehicle control apparatus estimates lateral acceleration from yaw rate and steering angle to identify abnormal sensor readings.

A driving force control device calculates vibration suppression forces to minimize vehicle body pitch.

A driving assist device derives user characteristics and inhibits travel when operations deviate from established baselines.

A vehicle control system adjusts dynamics actuators based on detected driver skill level and handling type.

A trailer backup assist controller generates steering commands based on hitch angle data from vehicle sensors.

A passenger display control unit presents automated driving status via text and images on a dedicated second screen.

Direct lateral force calculation eliminates integration errors and numerical drift, ensuring stable maximum grip performance.

A vehicle control system switches automatic driving modes using occupant gaze direction and driving element operations.

A vehicle guidance control unit adjusts autonomous driving activation based on real-time driver state evaluation.

A vehicle speed control system adjusts torque parameters using a modifier and filter to ensure smoother transitions during target speed changes.

An automatic comfort score system evaluates autonomous vehicle motion planning by comparing sensor data against human driving references.

A realtime driver assistance system monitors driving metrics and historical occupancy data to provide personalized coaching feedback.

A control unit manages auxiliary power take-off coupling by checking conditions and actuating drive-train components.

A vehicle control system calculates a driver attentiveness score using onboard sensors to determine automatic movement resumption.

Autocorrelation analysis of steering wheel angle measurements distinguishes genuine driver input from road disturbances and sensor noise.

Dual selector switches and an interlock circuit deactivate propulsion during autonomous vehicle mode transitions.

A vehicle driving force controller adjusts differential rotation between wheels to eliminate slippage without abrupt torque changes.

A vehicle control system dynamically adjusts assistance levels based on detected driver physical characteristics.

A vehicle system detects internal conditions and implements resolution strategies using sensors and processors.

A controller gradually disengages engine brake torque using a predefined ramp rate to smooth acceleration transitions.

A controller detects brake actuation and calculates a speed-based delay before overriding engine control.

A mobile object controller acquires peripheral traveling state data to specify control methods for a target vehicle.

A vehicle system detects anomalous driving conditions by applying speed-dependent weights to recursive steering variances.

A vehicle-mounted display apparatus visualizes the cooperative ratio between manual and autonomous driving operations.

A mobile ergonomic profile system transmits user preferences to a vehicle control module upon proximity detection.

System integrates image capture data with wheel speed sensors to calculate critical rollover speed, resolving accuracy complexity trade-offs.

A vehicle sensor system detects living beings in enclosed compartments using machine learning analysis of camera and microphone data.

A dynamically adjustable inch/brake overlap system varies transmission and braking torque based on accelerator pedal position.

An urgent stop controller maps safe-stop trajectories using environmental sensor data to guide autonomous vehicles through emergency deceleration.

Dynamically adjusts torque transfer rates using learned driving style data to balance rapid acceleration with reduced noise and vibration levels.