DC-AC Converter Switching Control for Fast Response

The patent divides the switching operation into separate segments by independently controlling P-type and N-type transistors through different pulse signals. Instead of simultaneous switching, the control circuit applies pulse signals with phase differences, segmenting the switching events in time. This segmentation eliminates parallel capacitance effects while maintaining continuous current flow through sequential operation of transistor pairs.

The patent implements periodic switching action by applying pulse signals with specific duty ratios and phase differences. The P-type and N-type transistors are switched in periodic cycles rather than simultaneously, creating a time-separated switching pattern. This periodic action reduces the harmful parallel capacitance effect while ensuring continuous operation through the alternating sequence of transistor activation.

The patent employs feedback mechanisms in the control circuit to optimize the switching timing of P-type and N-type transistors. The control circuit monitors the operational state and adjusts the pulse signal phases and duty ratios to achieve optimal energy transfer. This feedback control ensures that the increased switching complexity translates into improved energy efficiency through precise timing control that minimizes losses.

The patent changes the switching parameters by applying pulse signals with different phase angles and duty ratios to P-type and N-type transistors. Instead of identical simultaneous switching, the control circuit varies the timing parameters to optimize energy transfer efficiency. This parameter modification allows the system to achieve better energy utilization by controlling the exact timing of transistor activation and deactivation.