See how segmented stator winding groups with different pole numbers enable electric motors to p
See how speed-based deceleration and standby phases protect electronic components when an elect
See how monitoring electric motor current patterns detects blocked compressor valves across des
See how a controller reduces pump noise during beverage extraction by operating at reduced volt
Reduced-voltage pump startup cuts noise, then normal and dimmed voltage phases maintain pressure, flow, crema, and in-cup beverage quality.
Staged compressor ramp-up and expansion valve adjustment keep refrigerant flow stable, preventing liquid slugging, overheating, noise, and vibration.
A timed low-to-normal pump voltage profile cuts startup noise while maintaining brew pressure for better in-cup beverage quality.
An onboard controller with touchscreen, wireless links, and I/O expansion coordinates pump speed, flow, and auxiliary devices to cut power use.
Hall-effect current sensing replaces bulky Rogowski coils in small pumps, enabling compact fault detection and centralized maintenance monitoring.
Selective pump and valve control rinses hydraulic suspension lines while preserving switchable roll and pitch stiffness with better packaging.
Directly mapping actuator load pressure to motor torque cuts PLC and CAN latency, improving hydraulic response and energy use.
Periodic motor speed modulation counteracts pump pressure pulsation in vehicle hydraulics, cutting noise without redesigning the system.
A linear actuator pivots the motor-pump angle to replace manual displacement setting and deliver steadier flow with accurate dispense volumes.
A housing-integrated servo cylinder tilts the swivel element to vary displacement volume without enlarging the axial piston unit.
Dynamic motor speed adjustment keeps power reserve above a limit to prevent pump overload, sustain flow, and reduce energy use.
Dynamic flux weakening decouples d-axis and q-axis control to overcome Back-EMF limits and reach target compressor stroke without clearance loss.
Water level sensing, state assignment, and remote alerts improve sump pump monitoring reliability and help prevent basement flooding.
An electronic angle adjustment mechanism pivots the motor and pump to flatten sinusoidal flow and improve precise fluid dispensing.
Wide-range power electronics convert AC or DC inputs for one motor and gearbox configuration, reducing regional variants and spare-parts complexity.
During startup failure, gradual voltage reduction keeps the magnetic field active, slowing the piston to reduce knocking and improve restart positioning.
A hydraulic control system adjusts pump displacement based on engine speed to deliver precise power output.
A control system detects pump coupling mismatches using hall-effect sensors and motor speed data to ensure operational integrity.
A pressure intensifier system transfers hydraulic energy to abrasive slurry using a movable piston partition, reducing component wear and maintenance costs.
An inductive sensor detects magnetic field variations from a piston magnet to generate precise position voltage signals.
Lookup tables in a controller adjust electric motor signals to manage fluid pump torque, replacing mechanical pressure compensation devices.
A fire pump controller monitors power supply voltage and current during motor startup to enable precise system control.
A pump controller adjusts motor current using variable gain settings to manage speed deviations.
Phase locked loop tracks real-time load torque to adjust compensation parameters, eliminating vibration from fixed values.
A pump motor control unit generates a periodic compensation signal synchronized with detected interference pulses in the drive signal.
A pressure sensor measures pneumatic motor pressure to generate timing charts that filter priming phases and detect valve leaks without magnetic interference.
Motor current frequency analysis detects pump faults, eliminating expensive vibration transducers.
A hydraulic actuator uses a second directional valve to bypass pump output pressure directly to the ram.
A signal processor adapts a pump to multiple voltage inputs while monitoring current draw for operational safety.
A piezoelectric element driving circuit regulates current using a control loop that adjusts DC supply voltage based on extracted voltage signals.
Electric motor power monitoring detects dry running without extra sensors, preventing pump damage and simplifying assembly.
Real-time swash plate angle control prevents mechanical binding during turns, maintaining top-end speed and reducing pump stress.
A pump uses a signal processor to manage multiple voltage inputs and monitor current draw levels.
Pilot control applies pre-control signals to increase setpoint speed, preventing pressure drops during non-cyclic operations.
A controller regulates vacuum pump rotational speed to reduce noise during valve opening events.
A rotary encoder detects pump rotation speed and transmits signals to a controller for engine adjustment.
A linear compressor uses a switch unit to connect coils in series or parallel based on load magnitude.
Matching stator curvatures eliminates air gaps to prevent magnetic leakage, reducing magnet usage and lowering manufacturing costs.
Analyzing genset RPM and torque patterns detects compressor load cycles, enabling prime mover speed switching to reduce fuel consumption.
A runaway valve system monitors piston position signals to detect pump operation states and trigger automatic shutdowns.
A pump control system uses a Hall effect sensor to detect motor current for precise operating state determination.
An electronic controller regulates motor torque and speed to limit current draw, preventing fuse tripping while maintaining fluid flow efficiency.
A control device monitors electric motor power consumption to automatically switch operating modes and adjust speed for different nozzles.
A motor control unit adjusts current command values based on hydraulic pressure estimates to optimize power usage in electric pump systems.
A brushless DC pump system uses a rack and pinion converter to drive reciprocating motion.
A controller calculates motor load torque from current and rotational speed to determine target pump speed.
A hydraulic pumping control method optimizes motor and accumulator operation during fracking rest periods.
A radar gauge tracks the slag surface level during vacuum degassing, allowing the system to reduce evacuation rates and prevent molten steel overflow.
A compressor control device computes motor current values at two distinct startup times to identify abnormality types.
Coordinated pump phase control prevents composition instability and pressure fluctuations in solvent delivery systems.
A linear compressor control method estimates motor acceleration using robust integral of the sign of the error feedback to determine piston position.