Axially Engaging Brakes TRIZ Cases

See how a spring-driven manual mechanism replaces the electric motor in a vegetable dehydrator,

See how pivoting magnet assemblies with offset pivots reduce cleaning effort and manufacturing

See how pivoting magnetic assemblies with spring-loaded carriers enable easy cleaning and multi

See how a modular magnetic filter uses interchangeable assemblies and a common chamber to reduc

See how pivoting magnetic assemblies enable easy cleaning and modular sizing for 2-8 inch pipe

See how a brake device with directional torque settings reduces energy consumption and wear by

See how a modular magnetic filter with pivoting, detachable assemblies reduces manufacturing co

See how pivoting magnet pairs offset from the pipe centerline enable easy cleaning and modular

See how a freewheel-based brake device applies differential torque in opposite shaft rotation d

See how ceramic infiltration with yttrium and zirconium oxides forms carbide particles in carbo

See how ceramic infiltration with yttrium and zirconium oxides forms in-situ carbide particles

Ceramic infiltration and heat treatment form yttrium and zirconium carbides in carbon brake composites to improve wear resistance and service life.

A cover-mounted caliper brake clamps the basket lid ridge to stop salad spinner rotation quickly while reducing wear on actuators and bearings.

An integrated electromechanical actuator and eccentric shaft drive shrink brake caliper space while improving brake response and control.

Dual diverse control paths and gatekeeper signal matching prevent unsafe brake commands and support rail braking to IEC 61508 and EN 50128.

Rear-wheel hydraulic feedback modulates front brake pressure during hard braking to prevent lockup, tip-over, and loss of control.

A porous brake filter captures landing gear brake dust at the source while preserving cooling airflow and extending disc brake life.

A screw-driven pad thruster and pivoting linkage equalize multi-piston brake pad pressure, reducing piston breakage, noise, and wear sensitivity.

A stop-engaged spindle nut resets both brake pads in one release step, avoiding complex machining and manual caliper adjustment.

A vented wheel cover shields brake disc heat from the wheel and tire while preserving airflow for cooling and steering stability.

Sensors predict braking demand and brake temperature to adjust running clearance, cutting drag while reducing application delay.

By merging guide rods, housing, and restoration functions, this caliper brake cuts part count and cost while maintaining stable braking.

A planetary gear torque distributor lets one motor drive multiple brake pistons while adapting to uneven wear and load differences.

A mechanically switched transmission changes brake travel ratio by contact state, enabling faster approach and smoother braking without sensors.

Temperature-profile monitoring tracks cooling oil degradation in wet EV disc brakes, enabling timely warnings before brake damage or unnecessary oil changes.

A shear adaptor that fractures at a preset torque lets heavy-duty disc brake guide pins be assembled with standard low-profile tools and fewer errors.

Overlapping C-shaped heat shield panels expand independently around brake rotor lugs to prevent buckling, wheel contact, and abrasion.

By relocating union and bleeder mounting surfaces inward, this caliper body cuts protrusion, saves space, and eases brake assembly.

Forced airflow through the bell housing removes clutch heat, enabling electromagnetic PTO clutch and brake use without overheating.

A multiplication gear assembly cuts parking brake torque demand while dual calipers and separate ECUs preserve heavy-duty drivetrain parking reliability.

Alternating insulator and metal foil layers cut brake heat transfer while resisting compression set that can loosen aircraft brake tie bolts.

Sequential dual-caliper release with zero-force detection cuts EPB deactivation delay and gets the vehicle ready to restart sooner.

Current-based release timing adapts to temperature and hydraulic pressure to shorten parking brake release and avoid unnecessary motor actuation.

Internal channels in fastening bolts vent the return spring chamber while simplifying brake cylinder mounting and reducing disassembly space.

A deformable friction ring retracts the caliper after braking to reduce brake drag, wear, overheating, and contamination.

A self-locking worm gear and releasable coupling keep wheel brake tension during power loss while still allowing re-tensioning.

Longitudinal corrugations stiffen the heat shield retainer, limiting panel deflection and preventing wheel tube well abrasion.

A stopper limits ball screw and brake pad retraction to prevent collision, wear, and stuck parts during brake pad replacement.

A coaxial motor, transmission, and surrounding ramp mechanism shrink brake packaging while reducing maintenance and friction.

Force feedback synchronizes opposite brake actuators to limit asymmetric disc thrust, reducing wear and structural stress.

Mid-plane caliper mounting with a fixed leading mount and floating trailing link balances deflection, maintains piston contact, and cuts pad wear.

A gearbox and pedal lever link front and rear wheel brakes so a robotic surgery cart locks all wheels at once for stable positioning.

Modular drive, transmission, and clamping units let wheel brakes be pre-tested and reconfigured for torque, response speed, and clamping force.

U-shaped folds stiffen thin heat shield panel seams, limiting deflection and preventing wheel contact and abrasion.

A dual-seal EPB caliper layout uses an O-ring, backup ring, and scraper to block brake fluid leakage and air ingress under high pressure.

A spring-biased rotor and internal friction pack lock motor position when de-energized, then release by electromagnetic axial movement.

Heat pipes built into wheel studs move brake heat to external fins, cutting cooling delays and reducing tire damage risk.

A self-locking second motor mechanism releases residual brake disc clamping when the main EMB motor or control circuit fails.

A reinforcement plate around the torque bar aperture stiffens the wheel heat shield, reducing brake heat damage, strain, and deflection.

A dual-plate hub motor brake expands pad contact area and adds manual backup to improve braking torque, precision, and response.

A shared caliper half-body with aligned hydraulic passages supports both radial and axial mounting, cutting brake caliper variants and cost.

Annular load-sensor contacts keep electrical connection during housing-case rotation, easing brake assembly phasing without precise alignment.

A motor bracket integrates the motor and rotation stop mechanism to improve positioning accuracy, simplify brake assembly, and reduce interference.

An elastically deformable brake disc boosts peripheral friction engagement to raise braking torque and shorten stopping time in electromechanical drives.

During sustained braking, the ECU cuts motor torque while holding clamp force to limit EMB motor heating and extend brake actuator life.

Onboard cooled air from the aircraft air conditioning pack is routed to brake discs, avoiding ground cooling delays and extending brake life.

A coaxial wrap spring locks the brake actuator output shaft to add a compact, low-energy parking brake without extra locking parts.

Cooled air from the aircraft AC pack is routed to brake discs for continuous cooling, cutting ground setup delays and brake heat exposure.

By combining piston position and motor current, this case estimates clamping force accurately while reducing sensor noise and hysteresis effects.

A hollow spindle nests the axial bearing and force sensor to shorten brake actuator length while enabling precise force detection.

An ECU decouples front brake caliper torque in BBW motorcycles to avoid doubled braking feel while improving wheel slip control.

Thrust load sensing in the brake gear train lets the controller adjust motor torque for consistent braking force despite tolerances and wear.

Phased engagement of terminals and screw-to-gear coupling simplifies electric brake caliper assembly while preserving sensor connection reliability.

Stiffening beads in a low-profile heat shield retainer limit panel deflection near the wheel tube well and reduce abrasion under heat and vibration.

Bumper standoffs and flanged retainers stabilize wheel heat shields, limiting deflection, wear, and misalignment in brake assemblies.

Force-based coordination of two EPB brake calipers cuts parking brake release time and gets the vehicle ready to restart sooner.

Stored torsion spring energy is released through a brake-controlled shaft and centrifugal clutch to boost vehicle propulsion when power is limited.

Pre-adjusting brake pedal stroke to match accelerator-based deceleration reduces driver discomfort while preserving regenerative braking efficiency.

Magnetic polarity switching locks the brake pistons in place, maintaining pad engagement after hydraulic pressure is removed.

A T-shaped torque plate with tapered flanges and ribs cuts heavy-duty disc brake weight while preserving strength and easing fastener access.

A segmented positive-negative brake layout handles large lifting-machine discs while simplifying wear compensation, repair, and conversion.

Larger and asymmetric caliper pistons raise braking force while balancing hydraulic pressure and wear to extend brake durability.

Interleaving boron carbide powder between textile layers enables denser composites with lower porosity and higher specific heat for brake heat sinks.

A caliper locking groove and integrated pad spring simplify brake assembly while reducing pad rattling, noise, and stress concentration.

A single transfer port aperture feeds both piston bores, cutting sealed ports to improve brake lever feel and lower caliper machining cost.

Air channels in the brake carrier raise pressure near the disc-pad gap to counter aerodynamic suction and reduce inactive drag torque.

Elastic ribs in a disc brake bellows boot add sealing, lubrication, damping, and spring-like caliper return without a separate spring.

A thicker backing plate, carrier pad supports, and copper-free friction material reduce caliper interference, resist bending, and cut copper particulates.

A threaded shaft and socket let foot braking auto-compensate pad wear, reducing handbrake idle stroke and preserving braking function.

Casting the caliper body as a monoblock cuts material waste and assembly complexity while keeping pads replaceable.

Layered B4C particle and textile preforms control silicon infiltration, raising brake heat capacity while reducing silicon content and wear.

A sleeve-and-piston dual-seal layout separates flex and sliding to keep brake rollback consistent and simplify pad replacement.

Elastic securing elements lock the retaining bracket to the brake caliper without threaded holes or grooves, cutting machining and assembly effort.

A segmented spacer shields the bellows from hot pressure-piece and spindle contact, preserving seal mobility and brake service life.

Integrating the gearbox into the rotor shaft shortens and lightens wind turbine drivetrains while allowing maintenance without rotor disassembly.

A covered caliper opening and replaceable suction pipes capture brake wear at the source while avoiding the thermal issues of full encapsulation.

An angle compensation element decouples piston side loads from the gearbox, preventing tilt-induced wear and avoiding oversized brake actuator designs.

An angled spring-loaded retainer bracket keeps the brake pad off the disc to cut parasitic drag, wear, vibration, and energy loss.

Spaced contact regions and reinforcement webs spread actuation force across the brake liner to improve brake power and wear behavior.

A rigid cover, rod, and cap assembly protects bicycle disc brake rotors from bending during travel without removing the rotor from the wheel.

Multi-layer boron carbide, aluminum, and silicon coatings protect C/C friction disks from oxidation and wear, extending overhaul life.

A snap-coupled replaceable filter module captures brake dust at the disc to limit external spread and simplify caliper maintenance.

A modular buckle and locking structure simplifies caliper cover assembly while improving mounting strength, fit, and heat dissipation.

Elastic caliper constraint and displacement sensing quantify braking action more reliably while reducing residual torque, noise, and wear.

A graphite-free brake pad material uses metal sulfides and tailored friction composition to suppress creep groan and improve NVH across conditions.

A single actuator drives both inboard and outboard brake pistons through a shaft, cutting caliper complexity and size while maintaining braking force.

A reinforced carrier layout uses inner beam torque receivers and outward protrusions to keep aluminum disc brakes rigid and durable.

Elastic pad pressing and segmented fixing help a disc brake pad clip avoid bridge interference while preventing pad rattle and stabilizing braking.

An asymmetric pad liner uses separate return and extension parts to restore one brake pad, fix the other, and prevent drag torque and rattle noise.

V-shaped spreader springs reset brake pads after release, preventing residual rubbing torque, reducing wear, and lowering fuel loss.

Independent pressing members let the caliper switch braking modes to cut low-speed noise while maintaining strong high-speed braking.

Ridge and face geometry in a stator clip cuts torque plate spline drag while preserving stator disk lug strength at high landing energies.

A shaped pin with a dumbbell-like cross-section secures the rotor clip while reducing pin bending, lug damage, and assembly complexity.

A concave suction plate on the brake piston pulls the back plate rearward, preventing pad-disc contact and drag torque during travel.

A spring-controlled brake stack engages fewer carbon disk pairs at low force so disks heat faster, reducing cold wear and maintenance.

A concave caliper finger surface creates an air path and negative pressure to separate the pad, cutting residual drag torque, wear, and noise.

An asymmetric fixed-and-floating bearing layout stops brake lining clatter during rotation changes while easing tolerance and machining demands.

A resiliently biased pin locks the torque pad into the boss without cotter pins, simplifying brake assembly installation while preserving force transfer.

V-shaped spreader springs reset utility vehicle brake pads after braking to prevent residual grinding, cut wear, and simplify assembly.

A two-part screw nut keeps the threaded inner part hardened while the outer part resists corrosion, improving brake actuator durability.

A thickened edge and deeper rear protrusion stop reverse brake pad insertion and reduce slipping without adding caliper weight or cost.

A thickened edge and deeper rear protrusion block wrong brake pad insertion and maintain caliper engagement as wear increases.

A hypereutectic aluminum alloy rotor uses semi-solid die casting to cut brake weight while preserving heat resistance, conductivity, and warp control.

A preloaded spring between the brake pad guide web and locking bolt suppresses pad play, cutting rail brake wear and noise.

An external signal wire reaches the brake disc before the clip, improving wear-limit detection and allowing wire-only replacement.

A radial clamping member holds the brake pad wear indicator securely in a recess while allowing replacement, tolerance compensation, and vibration damping.

Liquid coolant and inert gas lower brake disk temperature and oxygen exposure, slowing oxidation and extending friction disk life.

A near-axis link arm and spring keep railway brake pads parallel to the disc rotor while avoiding bulky torque-bearing suspension links.

Localized brake carrier reinforcement handles forward braking loads, while a direction arrow prevents incorrect assembly and added complexity.

Pretensioned spring portions return the brake lining after braking, compensate wear, maintain disc spacing, and reduce noise.

A caliper pad spring uses a 15°-45° force angle to maintain pad separation, reducing residual braking torque and wear sensitivity.

Insert-casting a U-shaped hydraulic line and reusable metal core avoids sand-core defects, protects the line, and improves brake response.

An elastic overload member disconnects manual rewind torque in a disc brake adjuster, preventing damage and avoiding replacement parts.

A single hold-down clip secures one brake pad radially to maintain alignment, reduce wear, and simplify sliding caliper pad replacement.

A nested end cap closes the hydraulic chamber without visible tool features, improving caliper appearance while preserving fluid sealing and braking power.

Interlocking liner notches and core recesses transfer brake torque without fasteners, simplifying aircraft friction disk assembly and replacement.

A centered three-pivot linkage with a wide opening angle cuts brake release effort and helps prevent accidental manual activation.

A screw-nut wear take-up unit inside the caliper automatically compensates brake pad wear to maintain braking force in hydraulic parking brakes.