Brake Control Systems TRIZ Cases

A reconfigurable trailer brake hub repeats or routes CAN signals to support longer control lines and prevent incorrect connector wiring.

Automated extraction of train log data uses ML and NLP to detect PTC enforcement event root causes faster and more accurately.

By switching one wheel speed sensor signal between two control units, redundant ABS-capable brake control is maintained without extra sensors.

Hydraulically separate axle units replace inter-axle brake lines, cutting space and cost while enabling redundant autonomous pressure control.

When steering reaches a limit or fails, arbitration between yaw-rate and steering commands shifts lateral control to brake or drive actuators.

PWM keeps the secondary wheel outlet valve effectively open during fluid transfer, limiting pressure rise while reducing brake noise and heat.

A pre-positioned parking brake delivers modulated backup braking during service brake faults, preserving autonomous vehicle control and availability.

Reinjection-based neural reconstruction detects anomalous and adversarial data without extensive labeled training, reducing edge processing time.

Automatic switching between powered and mechanical braking keeps vehicle braking available during electrical faults without manual intervention.

Estimates wheel-road friction from normal driving data with an adaptive tire model, avoiding risky high-slip maneuvers for braking and autonomy.

Cross-checking actuator parameter values lets a backup controller take over after a fault, keeping the vehicle operable.

A detector circuit uses a current mirror to offset supply voltage transients and preserve accurate wheel speed sensor output.

A separate connection module lets one vehicle sensor run from two energy sources, enabling redundant signal evaluation if one supply fails.

Previous torque values and real-time slip feedback help set the slip controller working point faster, improving wheel stability and traction.

Register access identifies brake control computing hardware so software can enable the right functions across mixed vehicle platforms.

A shared wheel speed sensor interface and isolation circuit let primary and backup brake controllers keep reliable data without doubling sensors.

Automated extraction from unstructured PTC logs isolates key brake event data and speeds root cause analysis across disparate train sources.

Multiple noise detectors estimate wheel speed encoder wear and filter noisy signals, helping vehicle stability control avoid failures.

A plunger-based push rod and actuator let one master cylinder blend regenerative, manual, and autonomous braking without added length.

Dual magnets and a magnetic sensor track spring brake push rod stroke across the full range, helping detect wear and brake adjustment issues.

Sensor feedback balances brake torque and temperature across aircraft wheels, reducing pilot workload, undercarriage loading, and turn-around time.

Pre-validating fuzzy logic braking settings through simulation and decision algorithms improves instruction reliability without slowing real-time response.

Two control devices share one actuator line by detecting and suppressing overlapping signals, enabling redundant brake valve control with less wiring.

Sensors verify boom cradle and tank bed travel positions, blocking brake release or gear engagement until the vacuum truck is secured.