Abstract: A wireless power receiving method and a multicoil multiplex wireless power receiving device using same is disclosed. The method includes: a receiving coil for receiving AC signals from a transmitting base station; a rectifying unit for rectifying and converting the AC signal into a DC signal; a multiplexing device for receiving the DC signal from the rectifying unit and thereafter outputting direct current; a communicating and controlling device for modulating the multiplexing device and the receiving coil to feedback the electrical signal to the base station, and monitoring the load outputted. The communicating and controlling device adjusts the feedbacks during the electrical signal of the load abnormal. In the present disclosure, the receiving coil can fix in any position, rather than the receiving coil aligning to a corresponding coil of the base station, which can obtain a normal transmission work between the wireless power receiving device and the base station.

Abstract: A transceiving wireless power transmission device enclosure herein includes a transmitting and receiving coil, a receiving controller, a transmitting controller and a full-bridge switch connected to the transmitting and receiving coil and the receiving controller and the transmitting controller. When the full bridge switch determines that the transmitting and receiving coil is connected to the receiving controller or the transmitting controller. A near field communication (NFC) modulating unit is connected between the transmitting controller and NFC induction coil. The transmitting and receiving coil can optionally transmit or receive a wireless power according to an actual requirement, the NFC modulating circuit can determine whether an NFC circuit is formed on a receiving end of a smart phone or other electrical products. If the NFC circuit is formed on the receiving end, the transmitting controller is notified to activate an NFC protection to ensure that the NFC circuit can't be damaged.

Abstract: A dustproof cover of the disclosure is inserted into a charging port of an electronic device to prevent dust entering into the charging port. The charging port includes a pair of charging terminals. The dustproof cover includes a plug, a cover body fixed with one end of the plug, a plurality of metal connecting posts, and a conductive part located between the plug and the cover body. A first end of each metal connecting post extends into the plug, and a second end of each metal connecting post is electrically connected to the conductive part. In use, the plug is inserted into the charging port, the plurality of metal connecting posts contact the charging terminals, the conductive part is electrically connected to the charging terminals, and the cover body covers the charging port. The present disclosure also discloses a charging base corresponding to the dustproof cover.

Abstract: A wireless charging device of the disclosure is used for carrying out wireless battery charging for an electronic device. The wireless charging device includes a wireless charger, a positioning seat, and an adjusting seat. The positioning seat is fixed with the wireless charger. The positioning seat and the wireless charger collectively form a sliding space. The adjusting seat supports the electronic device. The adjusting seat extends into the sliding space and slides along the sliding space relatively to the positioning seat, to adjust a location of a transmitter coil center of the wireless charger, which results that the transmitter coil center of the transmitter of the wireless charger aligns to a receptor coil center of the electronic device.

Abstract: A power charging socket according to an exemplary embodiment of the disclosure is inlaid in a supporting body. The power charging socket includes a power socket module and a panel. The power socket module includes a power port exposed out of the panel. The power charging socket further includes a USB charging module and a baffle plate. The USB charging module includes a charging port exposed out of the panel. A wireless charging transmitter is located inside the baffle plate. One end of the baffle plate is rotatably connected with a bottom of the panel, and another end of the baffle plate is detachably connected with the panel. The baffle plate closes the panel to cover the power port and the charging port.

Abstract: A dustproof cover of the disclosure is inserted into a charging port of an electronic device to prevent dust entering into the charging port. The charging port includes a pair of charging terminals. The dustproof cover includes a plug, a cover body fixed with one end of the plug, a plurality of metal connecting posts, and a conductive part located between the plug and the cover body. A first end of each metal connecting post extends into the plug, and a second end of each metal connecting post is electrically connected to the conductive part. In use, the plug is inserted into the charging port, the plurality of metal connecting posts contact the charging terminals, the conductive part is electrically connected to the charging terminals, and the cover body covers the charging port. The present disclosure also discloses a charging base corresponding to the dustproof cover.

Abstract: The invention discloses a one-to-multipoint wireless powering method, wherein by using the radiating of magnetic line of force from the high frequency alternating magnetic field in a fixed area; by using the coils that composed of the loop to cut the high frequency magnetic line of force, and powering the electrical equipments after rectifying and filtering the alternating current that generated by the coils cutting; it is realized by the composing of a high frequency alternating magnetic field radiating element and magnetic cutting receiving element, while the high frequency alternating magnetic field radiates the magnetic line of force in a fixed area, and the magnetic cutting receiving element generates the alternating current by cutting the magnetic line of force and powers the electrical equipments after the rectifying and filtering of the alternating current.