Low-Frequency Knocking Resonator for EPC Stimulation

The patent employs a knocking device that generates mechanical vibrations at low frequencies (1.18-1.81 Hz) to stimulate the navel area. This mechanical vibration approach directly addresses the insufficient wave intensity by using physical knocking motions rather than conventional wave transmission, thereby achieving effective stimulation of endothelial progenitor cells while maintaining safe operating parameters.

The patent changes the frequency parameter to a specific low range (1.18-1.81 Hz) that resonates with human organs and cells, particularly targeting the navel area. By optimizing this frequency parameter and combining it with mechanical knocking action, the system achieves sufficient biological effect without requiring high wave intensity, thus resolving the contradiction between effectiveness and power consumption.

The patent uses periodic knocking actions at controlled low frequencies (1.18-1.81 Hz) rather than continuous high-frequency microwave oscillation. This periodic, low-intensity stimulation achieves the desired biological effect through resonance with natural organ frequencies while avoiding the harmful effects of excessive energy exposure associated with high-power continuous wave systems.

The patent replaces the electromagnetic field-based microwave oscillator system with a mechanical knocking device. This substitution eliminates the risks associated with high-energy electromagnetic radiation while achieving effective tissue stimulation through mechanical vibrations at safe, low-frequency levels that resonate with human biology.

The patent divides the wave generation function into separate components: a knocking device for mechanical vibration, a resonance cavity for amplification, and negative ion generators for additional health benefits. This segmentation allows each component to be optimized independently, achieving effective EPC increase through simple mechanical knocking combined with resonance amplification, rather than requiring a single complex high-power system.

The resonance cavity acts as an intermediary that amplifies the weak mechanical vibrations from the knocking device. Instead of directly generating high-intensity waves, the system uses the resonance cavity to multiply the effect of simple mechanical knocking, thereby achieving sufficient biological effect with minimal device complexity.