The application discloses a wearable split
mobile computing and
energy supply system based on dynamic
resonance tracking and a dynamic
wireless energy supply method thereof, relates to the technical field of
mobile computing and
wireless energy transmission, and aims to solve the problems of
coupling deterioration and transmission efficiency reduction of a magnetic
resonance wireless energy supply system in a receiving end motion. The
system comprises a wearable host configured in a belt head form, which is internally integrated with a high-performance
processing unit, a main transmitting coil unit, an adjustable matching network, a
space perception module, a wireless energy supply control core, a mobile communication module, a short-distance wireless
communication unit, a voice front end, a sensor unit and a touch display screen; a wearable belt internally contains a plurality of battery units to supply power to the host, and auxiliary transmitting coils are distributed on both sides of the belt to form a multi-array magnetic
resonance transmitting
coil array together with the main transmitting coil; and at least one interactive terminal is physically separated from the host and comprises a display unit, a magnetic resonance receiving coil, a rectification and
voltage stabilization link, a buffer
energy storage unit and a short-distance wireless communication module, and does not configure a main
application processor. The wireless energy supply control core calculates the
coupling state parameters of a magnetic resonance channel in real
time based on the three-dimensional position and three-dimensional posture of the interactive terminal, generates
frequency compensation instructions and power / phase distribution instructions, controls the adjustable matching network to dynamically adjust the working frequency to track the
resonance point drift, controls the driving amplitude and phase of each unit of the multi-
array coil array to form a directional energy beam, and realizes stable wireless energy supply in a dynamic scene.