Induction-Heated Laundry Drum Control for Low-RPM Heat-Spinning

The patent implements dynamic power allocation by continuously monitoring the actual power consumption of the motor during spinning and adjusting the heater output accordingly. The control unit calculates the difference between the maximum momentary power and the actual power consumption, then dynamically adjusts the heater output to utilize the remaining power capacity. This resolves the contradiction by making the power allocation flexible rather than fixed, allowing both motor and heater to operate at optimal levels without exceeding the maximum power limit.

The patent changes the parameter of heater output from a fixed preset value to a variable value that adapts to actual operating conditions. By continuously adjusting the heater output based on real-time power consumption data, the system optimizes the heat-spinning efficiency while maintaining power stability. This parameter change allows the system to achieve better heat-spinning performance without compromising the maximum power limit.

The patent implements dynamic temperature adjustment by linking the maximum heating temperature to the actual spinning RPM rather than using a fixed preset value. The control unit continuously monitors the spinning RPM and adjusts the heater output to achieve the appropriate heating temperature for that specific RPM level. This allows the system to maintain stability at high RPM while enabling additional heating capability at low RPM, resolving the contradiction between system stability and heating adaptability.

The patent changes the parameter of maximum heating temperature from a fixed preset value to a variable parameter that changes based on the spinning RPM. By establishing a dynamic relationship between RPM and maximum heating temperature, the system adapts the heating capability to the actual operating conditions. This allows optimal heat-spinning performance across different RPM levels while maintaining system stability.

The patent changes the operating parameters of heat-spinning by adjusting both the spinning RPM and heating temperature based on the selected mode. In silent mode, the system uses lower RPM combined with optimized heating temperature to achieve effective water content reduction with minimal noise and vibration. In high-speed mode, the system uses higher RPM for faster water removal. This parameter adaptation resolves the contradiction by providing different optimized parameter sets for different operational requirements.

The patent implements dynamic parameter adjustment that allows the system to switch between different heat-spinning strategies based on user selection. The control unit dynamically adjusts the RPM and heating temperature parameters to match the selected mode, enabling the system to optimize between heat-spinning efficiency and noise/vibration levels depending on the operational context.