Wireless Power Transmitter Differential Signal Control

The patent implements a feedback mechanism where the gauge measures the actual phase difference and amplitude between differential signals, and the controller uses this measurement to adjust the pulse width and timing of differential signals. This closed-loop feedback system dynamically compensates for phase differences caused by component deviations and varying transmission distances, thereby improving power transmission efficiency and reducing energy loss.

The patent introduces dynamic adjustment capability by making the pulse width and signal timing variable rather than fixed. The controller dynamically modifies these parameters based on real-time measurements from the gauge, allowing the system to adapt to changing conditions such as phase differences and amplitude variations, thus optimizing transmission efficiency under different operating conditions.

The gauge continuously measures the actual performance of electronic components including their deviations and parasitic effects. The controller uses this feedback information to compensate for component imperfections by adjusting signal parameters, thereby maintaining system operability while minimizing energy loss caused by component deviations.

The patent changes operating parameters such as pulse width, signal amplitude, and timing based on measured component characteristics. By adapting these parameters to match the actual component performance rather than ideal specifications, the system compensates for component deviations and parasitic effects, reducing energy loss while maintaining operability.

The gauge measures the characteristics of amplified differential signals including any harmonic content. The controller uses this feedback to adjust the amplification parameters and signal timing to minimize harmonic generation while maintaining adequate power transfer capability, thus reducing harmful harmonic radiation.

The patent dynamically adjusts amplification parameters such as gain, bandwidth, and signal timing based on measured conditions. By optimizing these parameters, the system achieves adequate power transfer while minimizing the generation of harmonic radiation, balancing power capability with harmful factor reduction.