Starter Details TRIZ Cases

A controller switches between full and reduced motor start sequences based on supply voltage to avoid false starts and capacitor energy loss.

An auxiliary motor accelerates high-inertia machines to near-synchronous speed, cutting grid voltage drop, torque peaks, and starter complexity.

By mapping each electrical sector's time ratio over a full rotation, the controller predicts rotor angle more accurately and cuts torque ripple and noise.

A timed dual-trigger controller keeps the motor running only with proper reengagement, preventing unsafe one-handed power tool use.

A controllable isolation switch disconnects reverse fault current in DC networks, preventing unnecessary inverter fuse replacement.

Current rise time in the motor coil reveals external magnetic fields, simplifying disturbance detection and rotor control without PWM-only sensing.

Switched capacitor banks let one CSCR motor adapt start winding excitation across compressor capacities while limiting current surge.

Capacitive or impedance sensing verifies both hands on the tool and blocks motor start from water, dirt, or debris false triggers.

Magnetic attraction and repulsion replace centrifugal switch mechanics to cut wear and maintain precise motor circuit engagement by speed.

Timed dual-trigger interlock and regenerative braking keep the side handle gripped, improving power tool control when handles loosen.

A timing and logic circuit cuts motor power after the set run time, improving face washing cleaning control while reducing energy use.

Phase-specific thyristor firing angles balance three-phase startup currents, cutting torque ripple, thermal stress, and motor wear.

Coil current rise time is used to detect external magnetic fields in a stepper motor without advancing the rotor, reducing circuit complexity.

Sequential stator coils, capacitor discharge, and position-based control improve piston acceleration and fastener driving consistency.

Limit switches and dual relay paths replace timing-based rail switching to prevent overcurrent and ensure complete switch rail seating.

Tracking contact carrier movement and over-travel time helps predict contactor faults and weld conditions before failure.

A dual-trigger controller keeps the motor running only with confirmed two-hand grip and a securely mounted side handle.

Impedance or capacitive sensing on both handles lets the controller block motor start from dirt, liquids, or missing hand contact.

Coil voltage monitoring detects partially welded switch contacts early and disconnects power to prevent relay damage and unsafe load connection.

A keyed handle interface and rotatable knob keep the side handle tight without body rotation, reducing thread wear and tool instability.

An auxiliary motor accelerates a high-inertia machine to synchronous speed, cutting torque peaks, voltage drop, and main motor heating.

Mutual lock signals let one hand keep both drive and snow collection running while the other adjusts speed, direction, or discharge angle.

Waveform-synchronized relay coil control cuts arcing and torque oscillations in rotating loads by timing armature switching with constant current drive.

A controller adjusts motor duty ratio to drive high-speed fastening operations in electric tools.

A drive control method detects motor interlocking states by measuring output features to protect the driver from damage.

A motor starting device adjusts power supply delay using measured resistance variation to regulate current draw.

A motor control device automatically defines and tunes operating parameters for reliable soft starting.

A contactless optical sensor detects user distance to trigger primary and secondary commands via a single natural movement.

A control unit detects rotor position via phase current eyes to start a brushless DC motor without sensors.

A wiper drive control unit adjusts wiping frequency based on real-time torque and voltage load variables to manage thermal conditions.

A wiper blade controller selects a high park position further up the windshield to minimize ice accumulation.

A soft-start circuit uses a digital-to-analog converter to generate varying current limit values for motor coil protection.

A control method adjusts motor input voltage based on sensed current to implement a soft start for electrical vacuum pumps.

A fan motor restart control unit rotates the motor forward and backward to detect rotation state changes.

A medium voltage inverter controller adjusts output voltage and frequency based on estimated rotor speed to restart the motor.

A switching device buffers energy via an internal store and detects supply voltage drops to enable controlled shutdown sequences.

An electromagnetic contactor controlled by an integrated microprocessor unit replaces external PLC wiring.

Motor control circuit prevents windshield wiper freezing by reversing direction until current draw drops, eliminating manual intervention.

A wiper drive circuit uses two separate batteries to power a motor, switching sources automatically when one fails.

A dynamic limiting resistor adjusts resistance during engine starting to maintain stable onboard voltage.

Phase winding short-circuit control rapidly attenuates rotor oscillations during the holding phase of a step motor.

A centrifugal switch operating mechanism uses a shifting fork to drive a swing arm for contact switching.

A magnetic centrifugal switch uses rotor magnets to engage contacts at speed without mechanical parts.

A conveying device predicts drive motor temperature using cumulative revolutions to switch operating modes.

A manual power generator converts mechanical energy into electrical power, eliminating battery replacement burdens in remote locations.

A motor control circuit system detects input voltage levels to activate the drive only when a specific threshold is reached.

An integrated microcontroller and non-volatile memory within the electric motor manage power supply states during vehicle start-stop events.

A control unit varies the starting direction of an electric power tool implement to balance operational wear across mechanical components.

A motor starter uses a buffer capacitor to supply energy for generating trigger signals during contactor defects.

Dynamic frequency control prevents overvoltage and overcurrent trips by managing regenerative energy, enhancing reliability and continuous operation time.