Axially Engaging Brakes TRIZ Cases

An axial engagement interface lets the spreader plate push the brake pad away after release, cutting residual drag, wear, and fuel loss.

An engagement interface between the brake pad arrangement and spreader plate pulls pads clear of the disc after braking to cut residual drag and wear.

An arch-shaped disc brake pad spring uses a 45°-60° force angle to ensure pad retraction, cut residual torque, and keep wear uniform.

An angled arch spring keeps disc brake pads fully separated from the disc, cutting residual torque and promoting more uniform pad wear.

An adapter plate puts the brake pad support in tension to reduce uneven pressure distribution and prevent tapered wear in disc brakes.

A detachable mechanical-hydraulic caliper layout uses offset attachment points to keep bicycle disc brakes compact and easier to maintain.

A carbon or fiber friction layer on the brake disc and thrust washer stabilizes braking force across temperature changes and wear.

A plastically deformable spring leg keeps disk brake pad clearance constant as lining wear progresses, reducing pedal travel and residual torque.

A button-adjusted gear brake cuts panel rotation force while still letting the operation panel stop at an arbitrary angle.

A carrier-mounted visual gauge aligns with pad members to show brake friction wear quickly and accurately without pad removal or caliper contact.

Multiple coatings on C/C brake disks separate oxidation protection and wear functions, extending service life and reducing oxidation fallout.

A threaded guide pin and sleeve replace undercut fits in floating brake calipers, simplifying assembly while improving sealing and corrosion resistance.

Concave side bridges with beam-supported material distribution keep an opposed-piston brake caliper rigid while cutting caliper weight.

A collar locked into a bore and reinforced by a shaped element keeps the disk brake shell assembly from shifting under repeated braking loads.

Stacked insulator layers and roughened contact features cut brake heat transfer and prevent compression set that can loosen aircraft brake tie bolts.

Injected wear debris lubricates CMC brake stator surfaces through the torque plate barrel, cutting cold wear and braking vibration.

A cavity built into the brake carrier pulls in abraded material, limiting brake dust escape without full encapsulation or added heat.

A separated bracket lets the fixed-caliper disc brake keep stable pad support while simplifying manufacturing and adapting to different knuckle mounts.

A press-fit counterpart and offset plunger set the brake air gap despite tolerances, simplifying assembly and enabling repair.

A pad-retaining spring pulls the brake pad radially outward to reduce oblique wear and extend disc brake service life.

A linear motor replaces gears and ball screws in the EPB actuator, cutting parts, assembly burden, weight, volume, and energy loss.

A pivoting wear-compensation and spring restoring assembly keeps brake pad air gap constant, easing installation and reducing unwanted drag.

A mono-block caliper structure cuts part count and assembly steps while improving vehicle packaging and stable braking.

A nested filter housing and snap-fit module capture brake dust at the disc and simplify replacement without major caliper complexity.

A transverse gripping portion simplifies brake lining installation and removal while keeping secure fastening in railway brake shoes.

A one-piece brake caliper and carrier housing cuts separation gaps, retains brake dust, and simplifies axle mounting for commercial vehicles.

A protruding filter medium seals against the brake caliper to capture brake dust more effectively under vibration and temperature changes.

An offset working fluid hole in the caliper body balances braking stress, limits deformation, and improves brake feel without changing appearance.

A thin foamed rubber layer on a metal brake shim converts pad vibration into heat, cutting squeal noise without a thicker shim structure.

Inclined elastic locking pieces secure the disc brake cover to the caliper, cutting assembly force while improving fixation stability and durability.

A tapered tappet and matching backing plate features bias braking force toward the trailing edge to reduce inner pad taper wear.

A lightweight aluminum main body and iron footing joined by rotary friction welding cut piston weight while preserving brake airtightness.

A higher-wear brake rotor surface enables wear-part replacement without full brake disassembly, cutting service labor and hub risk.

Offset pad centrelines, thinner leading abutments, and a thicker inboard back plate cut taper wear and extend brake pad life.

Conical and spherical support surfaces use gravity to re-center a tilted nut-spindle module, easing brake piston assembly and reducing friction.

A laser-alloyed gray cast iron brake disc surface uses carbides and chromium to cut wear, corrosion, and brake dust.

A one-piece caliper integrates spindle-drive support and the caliper body to cut brake weight, parts, and assembly effort.

Directly fixing the drive and planetary gears to the caliper cuts EMB size, weight concentration, and vibration while keeping braking stable.

Tangential airflow from disc rotation captures brake dust in housing-integrated filters, improving maintenance, aesthetics, and stiffness.

An integrated locking plate covers the caliper recess and restrains rotation to keep the disc brake cover aligned with fewer parts.

A ratchet and rotating lever keep the parking brake locked after actuation, cutting continuous power demand and failure risk.

A spring-loaded locking mechanism keeps brake pads at a set disc clearance after wear, cutting drag losses and extending brake life.

A spring-loaded locking brake pad arrangement maintains disc clearance as pads wear, cutting drag losses while preserving fast engagement.

A sealed brake cavity isolates the brake stack in low-pressure operation while purging particulates and controlling pressure, humidity, and heat.

Asymmetric brake pad slot placement around the pad barycenter cuts low-frequency vibration and suppresses whistle during braking.

A triangular brake carrier structure cuts material and weight while preserving rigidity and stress distribution in tight commercial vehicle brake space.

Mounting indicators and bracketed lining support help installers recognize correct brake lining orientation and prevent misinstallation.

A ceramic coating at the core-liner interface cuts brake disk wear, extends core life, and eases wear liner removal during overhaul.

A ceramic interface coating cuts wear between brake core and liner, extending core life and easing liner removal during overhaul.

Additional axial guidance in the floating frame brake reduces tilting, stabilizes brake application path, and limits uneven pad wear.