Charging management is shifted from the mobile device to the charger to cut heat, free internal space, and lower charging circuit cost.
Defined power-line parameter modulation keeps vehicle component data transmission reliable despite battery voltage fluctuations.
Voltage-matched capacitor switching cuts ceiling fan noise and damage risk while keeping motor control active if the light load fails.
A power cycle profile encodes outlet identity in the AC supply, letting data center devices verify their rPDU connection without shutdowns.
Resistor-assisted capacitor switching cuts fan control noise and damage risk while keeping motor control powered if the light fails.
Power-line dimming signals replace phase cutting to eliminate LED flicker, simplify multi-lamp wiring, and keep lamp clusters synchronized.
Power-line demodulation enables precise LED dimming and color temperature control while reducing flicker, wiring complexity, and voltage imbalance.
Voltage measurement and low-frequency modulation transmit reliable data over three-phase lines while preserving power delivery.
Electronic switches decode control signals via power lines, eliminating electromechanical wear while maintaining interference-free communication.
An oscillator injects a modulated carrier onto the DC line to transfer PLC data and synchronization signals, eliminating dual wiring requirements.
Dynamic decimation rate adjustment compensates for AC phase differences, maintaining channel orthogonality and reducing spectral leakage.
Direct current power line communication encodes data in voltage variations, eliminating high-frequency transceivers and reducing device complexity.
Current modulation on power lines transmits data from remote aircraft components, eliminating extra signal wires to reduce system weight and complexity.