Brake Types TRIZ Cases

Multiple brake temperature sensors feed an ECU and display to identify overheating wheels early and help prevent brake failure.

A tensioned cable and arrestor let ladder users prevent falls and descend in a controlled way without exposing rescuers to elevated hazards.

Automatic arm-and-trigger monitoring tracks motor brake magnet wear at set thresholds, reducing manual checks and improving maintenance safety.

Opposed inner ratchet locks and hydraulic sliding prevent monorail crane slip on steep, damp tracks despite low clamping pressure and wheel wear.

Wear sensor travel signals and state-dependent stiffness maps estimate brake clamping force without separate force sensors, cutting cost and maintenance.

A spring-biased foot lever lets a trolley brake contact the ground to hold heavy loads during loading or unloading, then reset automatically.

A compact brake pad sensor uses platinum RTDs and independent circuits to track wear and temperature accurately as the pad wears.

Brake shoes grip the side and bottom of rail heads to improve braking and secure holding in wet, icy, or unstable rail conditions.

A separate parking brake holds the elevator car on the drive track, relieving wheel loads to prevent tire flat spots and cut idle energy use.

An internal brake pin and disk on the elevator door motor keeps the car door closed between floors while reducing external maintenance.

An electromagnetic door motor brake replaces external deterrent hardware to hold elevator door opening within the 50 mm code limit.

A conical screw-and-nut brake in the diverting wheel delivers compact, reliable emergency stopping for escalators and autowalks.

Electric braking dissipates kinetic energy before a compact mechanical holder locks the metalworking drive at standstill, reducing wear and space.

A brake pad wear indicator tip uses a flexible tongue to secure into a U-shaped notch without external fasteners.

Rotating ring with flexible annular seal converts rotational motion into translational displacement for precise braking force control.

Segmented through holes with retention shoulders secure brake wear detection cables against vibration-induced slippage.

A connecting element links total and end wear monitoring apparatuses to expand brake pad detection capabilities.

Bent tabs on the spring clip prevent relative motion between the wear sensor and backing plate to eliminate noise.

Spring-loaded balls engage the ground during lateral tilt to provide hands-free braking, eliminating awkward weight shifts and over-rotation injuries.

A wheel speed sensor measures resistance to determine temperature, identifying brake maladjustments through thermal deviation analysis.

Strain gauges integrated into elastically deformable housing zones measure operational state, resolving monitoring accuracy versus complexity trade-offs.

A cam member actuates a driven unit to trigger a micro switch, controlling the motor rotation speed in stairlift systems.

A vehicle brake control unit uses a single lower mount member positioned at the center of gravity intersection to stabilize the assembly.

A hydraulic control unit positions a low-pressure accumulator below the pump cam cavity to enable gravity drainage of leaked brake fluid.

Segmenting the plastic body from the electrical conductor via dedicated grooves reduces scrap costs by allowing selective replacement of damaged components.

Ultrasonic brake wear sensors measure aircraft disc stack thickness via sealed cavities, replacing intrusive mechanical inspections with non-contact precision.

Color coding the terminal section of a brake wear sensor allows visual detection of partial extraction from a blind hole, ensuring reliable signal emission.

A sliding caliper disc brake uses a position sensor to detect displacement signals for continuous wear evaluation.

A brake pad state estimation device adjusts sensor sampling periods based on driving conditions to optimize resource usage.

Integrating the reservoir with the pump reduces system complexity and mounting flexibility constraints for towed vehicles.

A rail brake monitoring system uses temperature, flow, and pressure sensors to calculate remaining useful life based on actual operational usage.

A wear pin translates linearly along its axis to rotate a gear for automated brake wear measurement.

A segmented progressive die uses adjustable central, peripheral, and lateral punches to stretch sheet steel for precise brake plate formation.

A visual brake stroke logger records maximum pushrod travel distance using a moveable indicator within a housing.

Rotational-speed-dependent braking torque prevents dangerous autorotation while allowing the crane boom to align favorably with wind.

A clamping sleeve indirectly fixes a protective conductor sleeve to sensor head conductors, simplifying assembly and reducing production costs.

An arc-shaped coil array on a printed circuit substrate detects eddy currents in carbon ceramic brake discs to determine wear state.

Integrated circuits on erodible layers measure resistance changes to predict brake pad life, preventing safety risks from unpredictable wear rates.

Integrated erodible sensor replaces estimation models by measuring brake pad temperature and wear depth directly, improving life prediction accuracy.

A hardware processor calculates brake pad wear from caliper pressure and pedal travel gradients.

A pre-formed insulating body protects brake wear sensor signal lines from assembly damage and false triggering through integrated fixation features.

Conductive region segmentation prevents cross-talk interference between multiple calipers while enabling precise force and position monitoring.

A braking device central body supports spline gears and spring accumulators to absorb clamping forces.

An elevator braking roller uses an elastic pressure body to press against guide rails, reducing wear during regular operations.

A brake monitoring device counts magnetic pulses during actuation to detect stroke variations without precise sensor alignment.

A wedge-shaped powdered metal bracket deflects road debris while maintaining precise sensor positioning.

A wear sensor uses a plastically deformable metal collar on insulated wiring to visually confirm terminal section insertion.

A friction lining wear sensor uses a form-fit bundling element to secure conductor lines within the sensor body.