Abstract: A photoelectric resonance chip includes, a chip main body, signal receiver having a first coil, encoding device, signal generator having a second coil; and at least one light wave generating element and at least one electric wave generating element. When a user carries the chip main body on their body, the first coil converts the type of external microwave from energy wave to current, the signal receiver receives the signals and transmits them to the encoding device, the encoding device increases the frequencies of the signals by means modulation to enlarge the power thereof and transmits them to the signal generator, the second coil converts the type of the signal from current to energy wave, the signal generator feeds the enlarged microwave back to the user's body, and the microwave fed back to the body carries light wave energy and electric wave energy to flow around the whole body.

Abstract: A photoelectric resonance chip includes a chip main body further including an absorption portion, strengthening device, emission portion, and a light wave generating element and electric wave generating element are configured on one side of the chip main body. When a user carry the chip on their body, the strengthening device enlarge the power of external microwaves absorbed by the absorption portion, and the emission portion further feeds the microwaves with the enlarged power back to the human body. Thereafter, the fed-back microwaves carry the light wave energy and electric wave energy to flow around the whole body to strengthen human body's bioelectrical and the effect of the light wave energy and electric wave energy to the human body.

Abstract: An ultrathin microchip structure at least includes a flexible base material. The flexible base material includes an installation surface and a printed surface at an upper surface and a lower surface thereof, respectively. The installation surface is provided with one set or multiple sets of integrated circuits. Each of the integrated circuits at least includes a chip and at least one set of transceiver antenna. One or both of the installation surface and the printed surface of the flexible base material is/are applied with a nanometer film layer having characteristics of being waterproof, dustproof, wear resistant, and penetrable by the RF signal, thereby effectively simplifying the present invention as an ultrathin microchip.