Static/Dynamic Balance Measurement TRIZ Cases

See how vibration, current, and speed sensors feed a trained correlation unit to predict drum i

A rotatable press-ring thermostat simplifies setpoint changes and menu access, improving usability and supporting energy-saving HVAC control.

A masterless water heater network shares usage data to balance heating load, reduce wear disparity, and avoid single-point control failure.

A masterless control scheme rotates heating load, detects small flows, and balances remaining life across networked water heaters.

Controllers share usage history to balance wear, detect small hot water flows, and keep networked heaters efficient during service changes.

Gothic-arch grooves and locking balls remove radial clearance, improving tire centering, stiffness, and inspection repeatability.

Image-based wheel deflection and tire stiffness data estimate truck-trailer mass and center of gravity for safer autonomous maneuvering.

Automated end-of-arm tool selection applies balancing weights across tire assembly types without manual changeovers, cutting downtime and cost.

RFID-linked imaging records tire uniformity indicator coordinates digitally, avoiding colored dot failure and improving mounting accuracy.

An air-bearing cargo plate shifts load inside the aircraft hold to correct center of gravity quickly and maintain stable flight.

A movable arm and end effector balance wheel and tire assemblies across stations without custom setups, cutting handling time and safety barriers.

Segmented locking assemblies with gothic arch grooves and locking balls improve tire centering, stiffness, and inspection repeatability.

Sensor-based wheel distance and coupling angle measurements estimate trailer mass distribution and inertia to guide safer speed and route control.

A fulcrum cradle with end scales locates a boat's center of gravity and trailer tongue weight without complex weighing or calculations.

Baseline wheel vibration values help separate transient body shake from persistent imbalance, reducing tire wear and unnecessary vibration.

Center of mass estimation and sensor condition checks help an autonomous vehicle detect lost cargo, adjust movement, and alert external receivers.

A movable drive unit lets operators trigger wheel locking away from the machine, improving visibility and handling of heavy rims.

Integrated imbalance and orientation sensors let the in-wheel motor balance the wheel on-vehicle without bulky adaptors or separate machines.

A detachable inner piston stem and lubrication channels let tire uniformity chucks adjust bead width faster while reducing rod breakage and downtime.

An integrated unbalance exciter calibrates balancing machines without master rotors or manual weights, cutting errors and downtime.

Automatic cover locking based on wheel speed and acceleration protects operators while preserving access when the hub is below safe thresholds.

Automatic locking triggered by wheel speed keeps the balancer safety cover secure at high rotation without manual locking steps.

Redundant processors, sensors, and motors work with active balance and anti-tipping control to keep a mobility platform stable on curbs, stairs, and slippery surfaces.

A moveable rotor-shaft weight and closed-loop vibration control enable real-time generator balancing without shutdown.

Moveable rotor-shaft weights and closed-loop vibration feedback let generators rebalance during operation, cutting downtime and damage risk.

Controllers use material type and dump bed sensing to choose unloading positions that improve load balance, stability, and transfer efficiency.

Sensor checks and robotic hub operations automate trailer handling and mission readiness verification to cut human error and trucking delays.

An in-wheel motor spins the mounted wheel while onboard sensors measure imbalance and angle, avoiding external balancers and adaptor weight.

Camera road height data is corrected with pitch, roll, and vehicle motion to estimate road profiles more accurately and improve suspension response.

A movable load roller with force sensing improves wheel locking accuracy, tyre diagnostics, and vibration reduction during fitting and removal.

A deformable annular connector absorbs vibration in spin tests, enabling stable testing of unbalanced rotors with less noise and damage.

Synchronized radial arms and a central drive simplify wheel holder mounting while improving attachment accuracy for wheel alignment measurement.

Automated trailer matching, hitching, refueling, and inspection at transfer hubs cut manual errors, delays, and fleet prep costs.

Laser removal or deposition corrects rotor and motor housing imbalance without mechanical force, cutting vibration, noise, and heat distortion.

Integrated suspension sensors measure force in real time to derive vehicle mass, axle loads, and center of gravity without off-site weighing.

A single aligned load cell directly captures tangential, radial, and axial forces on a rotating body, improving tire uniformity evaluation.

A freewheel-linked central rotator synchronizes radial arm movement for one-handed wheel mounting with lower installation error in vehicle measurement.

A rail-mounted cradle bolts to the load wheel bearing housing to keep the wheel vertical during crane removal and transport.

Uses steering angle and yaw response to estimate trailer load center of mass without extra sensors, helping maintain stability and loading compliance.

Pivoting puller beam and threaded members remove seized wheels with controlled force, reducing hub damage and alignment sensitivity.

Wheel load sensing and motion data let the VCU estimate loaded vehicle center of gravity more accurately for braking, stability, and suspension control.

Pre- and post-correction balance data are fed back to update machining conditions, reducing deviation and improving first-pass balance correction.

A ring-flange clamping sleeve simplifies adapter changeover, improving alignment, connection robustness, and workpiece versatility.

Load sensors map weight distribution so the carrier can align with the center of gravity before lifting, preventing tilt or falling.

Insertion members with adjustable mass and clamping correct tool holder balance and runout, reducing vibration in high-speed machining.

Acceleration sensing in a rotating tool module detects runout quickly and cost-effectively, helping prevent machining errors and tool damage.

Conical collet surfaces and thread-engaging elements improve clamping accuracy, concentricity, and repeatable insertion on machine tools.

Sensed material quantity is used to estimate vehicle inertia and tune rotation control gains, improving maneuver precision while reducing structural load.

Integrated acceleration sensing in a rotating tool holder detects concentricity errors quickly without complex laser or air-based monitoring.

Sensed material quantities update inertia gain scheduling for vehicle rotation control, cutting load variation, structural weight, and handling errors.

Custom milling, fixturing, air gauging, and fluorescent inspection speed propeller taper bore refurbishment while improving repeatability.

Axis torque and inertia measurements let a machine tool estimate load mass and center of gravity automatically for precise positioning.

A lateral rollover limit detection system calculates stability using vertical vibration data from a spring-supported reference plane.