Braking Components TRIZ Cases

Brake pressure is shifted from overheated wheels to cooler ones to maintain demanded braking while reducing thermal damage.

Shared axle slip signals let controllers estimate vehicle speed and trigger a temporary idle axle only during full sliding, preserving traction and braking.

Sealed plug and socket connectors enable pre-filled brake lines to snap together without air entry, bleeding, or accidental release.

Sensor-based running clearance detection and brake event counting reveal wear and fatigue life, enabling condition-based brake maintenance.

Brake pressure is reduced when measured braking effect exceeds a limit, cutting drag torque, wear, and kinetic energy loss in commercial vehicles.

A connecting ring sealed to the brake shoe base cuts suction leaks and improves capture of brake wear particles in railway rolling stock.

A threaded thrust bolt, spreader plate, and centering cones retract rear brake pistons with less effort across varied detent patterns.

A removable connector block and ring layout simplifies brake head assembly while improving sealing and suction capture of braking particles.

Periodic high-flow suction clears brake particle buildup in pneumatic lines, reducing clogging and noise without continuous energy use.

A rivet-shaped clamping element strengthens multilayer brake assembly retention, preventing internal component separation without extra fasteners.

Current-based electromagnet control cuts stored energy at the right moment, enabling faster elevator brake re-engagement without extra sensors.

A threaded thrust bolt and centering cones retract rear brake caliper pistons with combined push-rotate force and less manual effort.

Multi-platform force sensing maps braking-force and load centers to flag instability and lurching in multi-axle and trailer vehicles.

Pin ball bearings and a steel press spring simplify pneumatic disc brake pad adjustment, cutting friction, wear, overheating, and part count.

Segmented parking piston with undercut juncture prevents unsafe power spring expansion upon shaft failure.

C-shaped reinforcement plates clamp damaged stabilizer anchor tabs to restore secure locator pin engagement without removing the brake assembly.

A bent brake pipe section overlaps the exhaust pipe inside the vehicle frame to maintain a compact layout.

Servo motors position a detection plate against the wheel back cavity to measure interference amounts, replacing manual checks that cause large errors.

A rail vehicle brake system redistributes braking forces across selected axles to maintain optimal deceleration.

A mechanical brake piston pushing tool uses a worm drive to manually insert pistons into caliper housings.

An overlapping axle wrap design couples end portions via an outer weld seam to secure the axle without engaging its surface.

Sensor-based rail brake control compensates for friction fluctuations by adapting braking force, reducing energy waste from constant re-adjustment.

A valve manifold control circuit automates rail car brake testing sequences while enabling manual valve positioning for targeted component diagnostics.

A multi-stage sensing valve device adjusts brake pressure ratios using a spool valve assembly with annular recesses and seals.

A brake system pump uses power consumption values to calibrate pressure difference settings.

A spring-applied parking brake uses a threaded collet and gearbox to enable manual pushrod actuation.

A hydraulic brake caliper piston tool uses a fluid circuit to push pistons back into the caliper.

Segmented fitting elements with snap-action coupling eliminate bleeding requirements while reducing structural complexity and weight.

A rail brake caliper design merges the wear adjuster and force generating device into a single housing for precise spindle control.

An insulated electrical cable uses an inner sheath layer with controlled elastic modulus to maintain routing flexibility.

A pneumatic valve unit manages compressed air distribution within a vehicle brake system.