Abstract: A cell retainer assembly includes a cell holder unit. The cell holder unit includes a first and a second member having a first and a second set of through holes respectively. The first and the second set of through holes is adapted to receive and position a plurality of cells therein. A groove is formed at a first and a second end of the first and second set of through holes. The groove is formed along an internal portion of one of the first and the second set of through holes. The groove has a length lesser than a length of each of the first and the second through holes. Further, the groove is adapted to receive adhesive therein to retain each of the plurality of cells within the first and the second set of through holes.

Abstract: A method and system for estimation of State of Health (SOH) of a battery pack is provided. The method includes determining a first SOH utilizing a set of operational parameters and a first set of stress parameters and a second SOH based on a determined discharge capacity. Utilizing the first and the second SOH, determine a second set of stress parameters of the battery pack. The method includes determining a third SOH of the battery pack based on at least one selected second set of stress parameters and the set of operational parameters and determining a deviation parameter based on the first and the third SOH. Thereafter, the method includes transmitting an ideal SOH signal to one of a server and a user device in response to the determined deviation parameter being greater than a pre-defined threshold.

Abstract: A system (115) includes a plurality of sensors (210) to measure multiple operational parameters of each of the plurality of cells (110). The system (115) further includes a switching unit (215) and a controlling unit (235) electrically and communicably coupled to each of the plurality of cells (110). The controlling unit (235) determines an energy value (E(cell-n)) for each of the cells (110) based on the multiple operational parameters of the cells (110), determines an energy delta (Dn) for the cells (110) and thereafter selectively operates the switching unit (215) for a time period (tn) to allow transfer of energy from one of the cells (110) to a storage unit (120). Thereby, each of the cells (110) is at an ideal operating state and the plurality of cells (110) are balanced.

Abstract: A system and method for managing a battery pack is provided. The system includes a detection unit in communication with the battery pack. The detection unit includes a plurality of sensors configured to detect operational, mechanical and status parameters of the battery pack. A battery management unit (BMU) is configured to determine the operational, mechanical and status parameters of the battery pack based on the received data from the detection unit. A server in communication with the BMU is configured to compare the received data from the BMU with trained operational, mechanical and status parameters and instruct the BMU to perform at least one action in response to a determination of at least one of the received operational, mechanical and status parameters deviating from the trained operational, mechanical and status parameters of the battery pack.

Abstract: A protection circuit module includes a plurality of pads respectively and electrically connected to a plurality of battery cells, protection circuit to monitor voltages of the battery cells and to balance of the battery cells, and a plurality of contact pads arranged in a preset order between the pads and the protection circuit.

Abstract: A protection circuit module includes a plurality of pads respectively and electrically connected to a plurality of battery cells, protection circuit to monitor voltages of the battery cells and to balance of the battery cells, and a plurality of contact pads arranged in a preset order between the pads and the protection circuit.

Abstract: A current detecting circuit includes: a shunt resistor; an amplifier; a first signal line connecting a first terminal of the shunt resistor to a first input terminal of the amplifier; a second signal line connecting a second terminal of the shunt resistor to a second input terminal of the amplifier; and a third signal line connecting the second terminal of the shunt resistor to a first power supply terminal of the amplifier.