Brake Control Systems TRIZ Cases

Real-time friction plate temperature calculation corrects AWD clutch torque, improving control accuracy and reducing burn damage.

Sensor-driven brake heating activates only when threat and brake conditions warrant it, improving cold and wet stopping while limiting energy use.

A virtual wheel-speed setup uses PWM motor control, sensors, and pressure feedback to test EPB rear-wheel anti-lock braking safely and stably.

When a rear brake switch fails, ECU torque comparison can still detect braking and trigger the brake light for reliable visual indication.

Partial braking through an auxiliary brake steers the vehicle when the main steering or brake path fails, preserving lane centering and stability.

Adaptive wheel-speed and deceleration sensing lets trailer brakes act independently, improving braking stability and fault tolerance.

Circuit isolation valves and a pressure accumulator preserve braking pressure and fault tolerance when a shared supply device fails.

Independent high-side driver feedback lets a trailer brake controller locate electrical faults and report them through the towing vehicle.

Dual braking paths let a rail brake switch from normal control to a high-integrity fallback path to maintain deceleration during faults.

A main brake module handles handbrake switch detection, while a backup module takes over on faults to cut data exchange complexity.

Separate service and safety braking paths let rail vehicles keep compact electromechanical braking while preserving fault-tolerant operation.

Separate primary and alternate brake channels prevent uncommanded brake application while preserving brake temperature monitoring during takeoff and landing.

Register access identifies ASIC or computing device variants early in brake boosters, preventing misconfiguration and cutting software test effort.

When brake ECUs, actuators, or pedal sensors fail, control shifts to an assisting ECU or remaining actuators to maintain braking.

When brake components fail, control shifts to an assisting ECU, brake pressure is redistributed, and nearby vehicle motion guides braking.

Precharged alternate brake pressure and shuttle valve switching cut switchover delay when the primary aircraft braking system fails.

Dissimilar brake controllers with backup software modules maintain actuator control during faults without adding aircraft mass.

Automatic switching between electrical and mechanical braking preserves braking function during power faults and limits driver overheating.

Constant-volume brake pressure testing reveals latent faults in vehicle dynamics control while preserving emergency braking capability.

Decentralized interface elements add local measurement and control functions to commercial vehicles, enabling retrofit flexibility and redundancy.

A thermal model compares predicted and measured brake temperature to detect dragging brakes early and prevent excess heat damage.

Braking data is turned into a damage counter so railway vehicles can trigger countermeasures before brake component wear leads to failure.

Wheel slip limits validate vehicle dynamics models for emergency maneuvers, preserving lateral force capability and expanding autonomous ODD.

A single active wheel speed sensor is switched between two control units to keep ABS wheel-speed sensing redundant without duplicate sensors.

When braking sensors fail, a nearby autonomous vehicle supplies deceleration data so the host vehicle can estimate hydraulic pressure and stop safely.

When one wheel brake fails, coordinated braking on another wheel offsets unintended force and helps maintain stable vehicle behavior.