Braking Elements TRIZ Cases

End-positioned rigid inserts on a brake back plate clean and smooth the wheel surface while easing stress on brake pads during braking.

A stacked dual-cable sensor head keeps brake pad wear signals accurate by preventing both cables from contacting the disc at once.

Dual fans manage airflow inside a brake enclosure to capture wear particulates at high speed while preserving disc cooling and heat transfer.

Structural stiffening and adhesive bonding keep the brake pad PCB fully adhered, preventing signal inversion and moisture ingress.

Through-channels with varied widths improve CVI/CVD gas distribution, making porous preform densification more uniform and faster.

Radial sealing rings and annular spacers stabilize gas flow and pressure gradients in CVI stacks, reducing soot and densification variation.

A layered locking and reinforcement plate creates undercut retention features that hold brake pad friction material more securely.

An integrated molded brake pump adjustor replaces complex metal parts to improve sealing, cut assembly time, and lower production cost.

An aluminum-stainless clad brake pad improves heat dissipation while resisting high-temperature deformation through laser-welded steel support.

A copper-free brake pad composition uses rounded hard abrasives, lubricants, and carbon materials to suppress stiction and creep groan.

A pressure relief valve balances brake cylinder boot pressure to prevent deformation, flipping, and seal failure under heat.

Copper- and nickel-free sintering forms brake friction material on a protruded back plate while maintaining braking performance and reducing metal release.

Electrostatic electrodes placed near the tire contact point capture wear particles at the source while staying compact and protected from road debris.

Raised magnet faces aligned with brake pad openings strengthen particle capture near the abrasion zone, reducing airborne brake emissions.

Covering exposed return spring edges helps prevent finger entanglement during disc brake maintenance without increasing brake size.

Layered or sintered friction blocks help elevator brake magnet assemblies raise braking force, cut machining cost, and reduce wear.

A sensor plate around the brake pad breaks or shorts its circuit as wear progresses, triggering a warning before hidden caliper pads become unsafe.

Integrated suction tubes on each brake pad capture abrasion material at the friction interface, cutting brake dust without brake encapsulation heat issues.

A metallic damping element on the brake pad support frame absorbs braking vibrations without disturbing friction material position or wet braking efficiency.

Continuous-fiber composite backing plates cut brake pad weight while preserving stiffness and resisting warping, corrosion, and metal-driven reactions.

A one-piece sintered ceramic friction pad replaces metal-backed linings to avoid thermal stress, contact corrosion, and joining complexity.

Centrifugal airflow through pad grooves guides brake dust into a collection pipe, improving particle capture while avoiding residual torque.

Blowing air through a brake pad groove guides friction dust to a suction pipe, improving particle capture while limiting escape and residual torque.

Threaded pressure plates reset brake caliper pistons evenly, cutting manual effort and avoiding scratches or deformation during pad replacement.

Semi-permanent tabs and legs keep the brake shim on the carrier or torque plate, reducing fretting wear and exposing tampering.

A thermally decoupled brake pad sensor module improves force and temperature monitoring while limiting heat and electromagnetic noise.

RFID-equipped brake pads enable contactless friction-spec verification, cutting inspection time and avoiding failed labels.

Asymmetric gaps between elastic sliding members clear snow and drain water, helping railway brake linings maintain pressure and friction.

Curved base-plate claws raise brake shoe fixing force and keep the friction member from detaching under braking rotation.

Adjustable tensioned levers and a spindle drive cut elevator brake closing time while preventing dragging, noise, and power-loss release.

A fixed spreader spring joins both bicycle brake pads into one aligned unit, reducing handling steps and simplifying caliper installation.

Automatic wear sensors in rail brake linings replace error-prone visual checks and enable timely pad replacement without redesign.

An insert groove grips the sleeve's inner sealing lip to transmit extraction force, speeding brake adjuster replacement with one tool.

Compressed air lifts brake friction parts off the braking member while capturing wear residues to cut sticking, drag, and emissions.

Austenitic high-manganese steel uses grain-boundary precipitates to raise friction, wear resistance, and high-temperature brake strength.

A stepped duct and collection groove keep brake pad suction stable as the lining wears, improving particle and dust capture.

A surrounding sensor plate opens or shorts its circuit as concealed brake pads wear, giving riders a timely replacement warning.

A crank-linkage elevator brake converts tensile to compressive force to balance load changes, reduce wear, and hold the car on the rail.