Abstract: Embodiments of the present disclosure provide a transmission system of a medical device, comprising a first transceiver on a rotor and a second transceiver on a stator, wherein the first transceiver on the rotor is configured to transmit scanning data to and receive control signals from the second transceiver on the stator; the second transceiver on the stator is configured to transmit the control signals to and receive the scanning data from the first transceiver on the rotor; and a bidirectional transmission between the first transceiver and the second transceiver is wireless.

Abstract: Embodiments of the present disclosure provide a rotary assembly. The rotary assembly comprises a stator disk, a rotor disk rotationally cooperated with the stator disk, at least one transmitting antenna disposed on a mating surface of one of the stator disk or the rotor disk, and at least one receiving antenna disposed on the mating surface of the other of the stator disk or the rotor disk. The transmitting antenna and the receiving antenna are electromagnetically coupled to maintain signal integrity during relative rotation.

Abstract: The method includes: receiving collected electrical signal information of all cells in each traction battery; performing self-discharge observation and calculating a self-discharge rate based on a cell voltage in electrical signal information of each cell after depolarization is completed, to determine whether there is an internal short circuit in a traction battery where the cell corresponding to the self-discharge rate is located; and triggering alarm handling for the internal short circuit in the traction battery based on a back-fed result that there is an internal short circuit in the traction battery. In this way, a problem of how to monitor a micro-internal short circuit in a traction battery in a good static working condition with accuracy and efficiency while taking operation into consideration is solved, thereby improving accuracy and efficiency of monitoring an internal short circuit in the traction battery while taking operation into account.

Abstract: An insulation monitoring method and system for a traction battery and an apparatus are proposed to solve the problem of how to accurately predict a risk of insulation deterioration of the traction battery before the insulation deterioration occurs on the traction battery, so as to provide an early warning about failures in the traction battery. In this method, data statistics on a large amount of insulation resistance values within a long period of time are collected, and whether the traction battery has the risk of insulation deterioration is determined by analysis based on a data statistical result; and if the traction battery has the risk of insulation deterioration, alarm information is output. In this method, based on data statistical analysis performed on the large amount of insulation resistance values within a long period of time, insulation deterioration can be predicted before the insulation deterioration occurs on the traction battery.

Abstract: An insulation monitoring method and system for a traction battery and an apparatus are proposed to solve the problem of how to accurately predict a risk of insulation deterioration of the traction battery before the insulation deterioration occurs on the traction battery, so as to provide an early warning about failures in the traction battery. In this method, data statistics on a large amount of insulation resistance values within a long period of time are collected, and whether the traction battery has the risk of insulation deterioration is determined by analysis based on a data statistical result; and if the traction battery has the risk of insulation deterioration, alarm information is output. In this method, based on data statistical analysis performed on the large amount of insulation resistance values within a long period of time, insulation deterioration can be predicted before the insulation deterioration occurs on the traction battery.

Abstract: The disclosure provides a method and system for monitoring a battery short circuit and an apparatus. The method includes: receiving collected electrical signal information of all cells in each traction battery; performing self-discharge observation and calculating a self-discharge rate based on a cell voltage in electrical signal information of each cell after depolarization is completed, to determine whether there is an internal short circuit in a traction battery where the cell corresponding to the self-discharge rate is located; and triggering alarm handling for the internal short circuit in the traction battery based on a back-fed result that there is an internal short circuit in the traction battery.

Abstract: The invention provides a battery pack, a method and a vehicle. The battery pack battery has a cell group. The cell group comprises a lithium iron phosphate cell and a ternary lithium-ion cell, wherein the lithium iron phosphate cell and the ternary lithium-ion cell are arranged in series with each another.

Abstract: An in-situ implanted bionic artificial anal sphincter system with an independent swing arm structure comprises: an energy transmission control unit and a sphincter prosthesis unit. The energy transmission control unit comprises a master control module and a percutaneous wireless energy transmission module while the sphincter prosthesis unit comprises a wireless energy receiving module, a micro power supply, a sensor, an execution unit and a slave control module. The invention has a simpler and compact structure which reduces the risk of transplanting; the middle ring with independent rotating shaft has simple structure and reduces the difficulty of installation; the hall switch is arranged in the upper ring bin to facilitate wiring; the external gear meshing transmission torque is simple and reliable.