Braking Action Transmission TRIZ Cases

Curved expansion chamber attenuates acoustic output from rotary vane vacuum pumps using Helmholtz resonance to reduce noise in compact vehicle brake boosters.

A valve diagnostic system uses ambient energy conversion to power sensors and data hubs within pneumatic brake lines.

A trailer safety brake system uses a probe and biasing unit to automatically engage the brake when the hitch disconnects.

Segmented spindle nuts combine high-strength and low-friction materials to extend service life while maintaining operational reliability.

Digital data communication bus segments aircraft braking subsystems to prevent error propagation while reducing mechanical weight.

Electrical control replaces mechanical linkages to simplify installation and maintenance while ensuring reliable progressive braking.

Folded coupling sections in a brake hydraulic pressure controller absorb mechanical vibrations to maintain stable electrical connections.

A differential relay brake cylinder maintaining valve replenishes pressure through a choke using diaphragms of varying surface areas.

A control device monitors brake booster state to adjust electric parking brake torque.

A towed vehicle braking system uses a mechanical coupling force sensor to generate control signals for the actuator.

Estimates negative pressure in a brake force booster using hydraulic master cylinder signals and engine speed data.

Electronic controller monitors delivery air pressure signals to determine trailer connection status, resolving uncertainty in park brake operation.

A parking brake control method generates setpoint clamping force using roadway incline data to maintain vehicle stability.

A processor monitors remote locomotive orientation using GPS and wheel sensors to detect anomalous definitions.

A control unit monitors pressure changes via sensors to detect valve malfunctions in electric parking brake systems.

Integrated electro-pneumatic firewall mediates data between safety and auxiliary CAN buses, reducing system complexity while maintaining brake reliability.

Dynamic dead zone adjustment suppresses stepwise hydraulic pressure changes during gradual target transitions, resolving driver deceleration discomfort.

A hydraulic piston with an integrated axial recess and sliding element secures the spindle nut against rotation.

A railway brake device uses a curved lever contact portion to stabilize rotating torque during linear output shaft movement.

A tractor-mounted monitor detects manual trailer brake activations and records speed data to enforce usage guidelines.

A pneumatically controllable 3/2-way main valve controls brake pressure in an electropneumatic axle modulator.

A braking device uses an electrically controllable valve to manage fluid transfer between partial volumes in the master brake cylinder.

A signal control device uses collinear spools to adjust fluid flow for proportional braking force.

Three-position relay valves prevent wheel skidding by restricting fluid discharge through flow limiting orifices during emergency braking events.

Universal mounting brackets eliminate orientation-specific parts, reducing manufacturing costs while maintaining ergonomic readability for operators.

A telematics control device manages trailer brake states using GSM signals to engage parking brakes when uncoupled.

Partial bus bar exposure within a resin case frees internal space for flat cable connections, reducing mounting area while maintaining structural integrity.

Dynamic braking capacity calculation replaces static worst-case assumptions with real-time sensor data to reduce unnecessary speed limitations.

Electrically controlled brake system monitors pressure ratios between pedal simulator and hydraulic paths to identify cut valve mechanical leaks.

Direct valve venting enables independent trailer stretch braking, resolving control complexity.

A brake control apparatus updates drive data using motor position and pressing force relationships during stabilized braking operations.

An integrated control unit merges EPB and TCM functions using a dual-use piston, reducing system complexity while maintaining precise pressure control.

Engineers resolve emissions testing contradictions by replacing vacuum-dependent control with speed-based actuation that ensures reliable vacuum generation.

A vehicle control system analyzes throttle and lateral acceleration signals to gate brake fluid consumption indicators.

A controller limits motor speed using calculated braking command differentials, reducing operating noise while maintaining rapid brake response.

Electronic weighting control modulates pneumatic pressure at relay valve inlets, reducing railway braking system weight while maintaining reliability.

Composite plastic resin brake chamber case uses reinforcement ribs to resolve the trade-off between reduced vehicle weight and required compression strength.

A pressure control valve with independent inlet and outlet valves adjusts brake pressure through synchronized timing.

Acceleration sensors measure lateral and longitudinal dynamics to calculate maximum supportable drive torque for proactive wheel slip management.

A motor-driven pump increases pressure in the brake circuit to dissolve residual air into the fluid.

A hydraulic brake system uses three pressure generators to provide autonomous braking force without driver intervention.

Hydraulic pressure adjustment secures the gap between primary and secondary pistons, ensuring responsive booster power without increasing motor capacity.

Segmented hydraulic channels with multi-function valves eliminate master cylinders to ensure fail-safe operation during autonomous driving.

Feedback mechanisms stabilize braking force within defined pedal stroke thresholds to reduce driver stress from unintended acceleration.

Optimizing tooth compression ratios and pitch distributes load across tips, resolving uneven loading noise in narrow electric parking brake belts.

A brake booster incorporates an idle travel phase where the control valve remains non-actuated to delay conventional braking response.

A brake system monitors pressure medium levels in the reservoir tank to detect fluid loss and trigger diagnostic routines for leak localization.

Pneumatic safety interlock prevents service brake pressure from compromising emergency braking function.

An electric brake actuation controller adjusts load cell gain to compensate for parasitic resistance in power wiring.

A hydraulic brake latching mechanism mechanically blocks the electric actuator to preserve parking pressure.