Abstract: A battery power system includes a number of battery modules. Each battery module includes a number of battery cells, a management circuit positioned at a first side of the battery module, and a heat source positioned at a second side of the battery module and opposite to the first side. The management circuit is electrically connected to and manages charging and discharging of the cells of the corresponding battery module. The heat source is thermally coupled to the cells of the corresponding battery module and dissipates heat generated by the cells of the corresponding battery module. The battery modules are arranged in two lines, and the first sides of the battery modules in one line are positioned adjacent to and face the first sides of the battery modules in another line.

Abstract: A battery module includes a casing, and a battery assembly, a frequency converting assembly, and a heat dissipation assembly received in the casing. The casing defines a first vent and a second vent. The casing includes a top portion and an opposite bottom portion. The first vent and the second vent are respectively adjacent to the bottom portion and the top portion. The frequency converting assembly is electrically connected to the battery assembly. The heat dissipation assembly includes a fan secured to the casing and facing the second vent. The fan is configured to rotate so as to draw air into the casing via the first vent, cause the air to flow through the battery assembly and the frequency converting assembly, and draw the air out of the casing via the second vent.

Abstract: A battery module includes a casing, and a battery assembly, a frequency converting assembly, and a heat dissipation assembly received in the casing. The heat dissipation assembly includes a heat-conducting unit and a heat-dissipating unit. The heat-dissipating unit includes a first dissipation member independent from the battery assembly and the frequency converting assembly. The battery assembly and the frequency converting assembly are coupled to the first dissipation member via the heat-conducting unit to cause heat generated by the battery assembly and the frequency converting assembly to be conducted to the first dissipation member.

Abstract: A battery pack includes a housing, a number of battery cells received in the housing, and an electrical connection plate module for connecting the battery cells together. The housing defines a number of heat dissipating grooves. The battery pack further includes a number of electrically-insulated heat conductive pads received in the heat dissipating grooves and at least one heat conductive plate. The heat conductive plate forms a number of first protrusions and is mounted on the housing. The first protrusions extend into the heat dissipating grooves pressing the electrically-insulated heat conductive pads close to the electrical connection plate module.

Abstract: A battery pack includes a housing, a number of battery cells received in the housing, and an electrical connection plate module for connecting the battery cells together. The housing defines a number of wedge-shaped grooves. The battery pack further includes a number of electrically insulated heat conductive pads received in the wedge-shaped grooves and at least one heat conductive plate. The heat conductive plate forms a number of first wedge-shaped protrusions and is mounted on the housing. The first wedge-shaped protrusions cooperate with the wedge-shaped grooves to press the electrically-insulated heat conductive pads on the electrical connection plate module.

Abstract: A battery module includes a base, a battery assembly supported by the base, and a heat dissipation unit for dissipating heat created by the battery assembly. The heat dissipation unit comprises a cooling box defining an interior space to accommodate a cooling fluid, an inlet to feed the cooling fluid into the interior space, and an outlet to discharge the cooling fluid from the interior space, thereby allowing circulation of the cooling fluid in the cooling box.

Abstract: A battery module includes a base, a battery assembly supported by the base and comprising one or more battery cells, and a heat dissipation unit for dissipating heat created by the one or more battery cells. The heat dissipation unit comprises one or more heat-conducting elements to transmit the heat from the one or more battery cells. Each of the one or more heat-conducting elements comprises a plurality of branches concentrated at a substantially middle portion to form a fixing portion and extend away from each other at two ends of each branch. Each of the one or more battery cells is in contact with the branches of at least one of the one or more heat-conducting elements.

Abstract: A battery module includes a base, a battery assembly supported by the base, and a least one liquid-adsorbing member. The battery assembly contains liquid electrolyte. The least one liquid-adsorbing member is positioned between the base and the battery assembly to absorb the electrolyte if the electrolyte leaks from the battery assembly.

Abstract: A battery module includes a base, a battery assembly supported by the base and including one or more battery units, and a heat dissipation unit for dissipating heat created by the one or more battery units. Each battery unit includes two battery cells aligned with and spaced from each other. The heat dissipation unit includes one or more heat-conducting elements, a cooling box, and one or more connecting elements. Each battery unit has at least one heat-conducting element in contact with side surfaces of the two battery cells at the same side and coupled to one of the one or more connecting elements. Each connecting element is positioned between the two battery cells of one of the one or more battery units and secured to the cooling box to transmit the heat from the one or more heat-conducting elements to the cooling box.

Abstract: A thin battery integrating an electric connector and a battery cell is provided, including a battery cell, a circuit board, an electric connector, and an adhesive tape. The battery cell includes a top sealing area, a first electrode bar, and a second electrode bar. The first electrode bar and the second electrode bar are disposed in the top sealing area of the battery cell. The circuit board is disposed in the top sealing area and includes a first and a second electrode welding pad. The electric connector is disposed in the top sealing area and connected electrically to the circuit board. The adhesive tape wraps the battery cell and the circuit board. The thin battery can be connected to the mobile electronic equipment, having a mating connector, along a first direction or a second direction through the electric connector, thereby supplying power.

Abstract: A battery module includes a battery pack and a heat dissipating assembly for dissipating heat generated by the battery pack. The battery pack includes a number of battery cells. The heat dissipating assembly includes a heat dissipating sheet, a heat exchange element, and at least one heat pipe. The heat dissipating sheet is thermally coupled to the battery pack for collecting heat generated by the battery pack. The heat exchange element is fixed on a sidewall of the battery pack. The heat exchange element stores a coolant. The heat pipe is attached to the heat dissipating sheet. One end of each heat pipe is inserted into the heat exchange element to absorb the coolant. The absorbed coolant is evaporated by absorbing heat collected by the heat dissipating sheet.

Abstract: A heat-dispersing battery module includes a top holding frame, a bottom holding frame, and a number of batteries. The top holding frame is made of thermally conductive plastic, and defines a plurality of top receiving holes. The thermally conductive plastic includes a plastic material and a thermally conductive material dispersed in the plastic material, where a thermal conductivity coefficient of the thermally conductive plastic exceeds 3 w/mk. The bottom holding frame is connected to and spaced from the top holding frame, the bottom holding frame defines a number of bottom receiving holes each of which being aligned with a top receiving hole. Each battery includes an anode and a cathode. The batteries are positioned between the top holding frame and the bottom holding frame with the anodes of the batteries received in the top receiving holes and the cathodes of the batteries received in the bottom receiving holes.

Abstract: A battery power system includes a number of battery modules. Each battery module includes a number of battery cells, a management circuit positioned at a first side of the battery module, and a heat source positioned at a second side of the battery module and opposite to the first side. The management circuit is electrically connected to and manages charging and discharging of the cells of the corresponding battery module. The heat source is thermally coupled to the cells of the corresponding battery module and dissipates heat generated by the cells of the corresponding battery module. The battery modules are arranged in two lines, and the first sides of the battery modules in one line are positioned adjacent to and face the first sides of the battery modules in another line.

Abstract: A battery module includes a top holding frame, a bottom holding frame, and a number of batteries. The top holding frame is made of thermally conductive plastic. The top holding frame defines a number of top receiving holes. The bottom holding frame is connected to and spaced from the top holding frame. The bottom holding frame defines a number of bottom receiving holes aligned with the top receiving holes one by one. Each of batteries includes a shell, an anode and a cathode at opposite sides of the shell. The batteries are positioned between the top holding frame and the bottom holding frame with the anodes of the batteries engaged in the respective top receiving holes and the cathodes of the batteries engaged in the respective bottom receiving holes.

Abstract: A battery power system includes two battery modules stacked together and a heat dissipating unit. Each battery module includes a heat conductive sheet positioned at a side facing toward the other battery module. The heat dissipating unit includes heat pipes positioned between the battery modules and in contact with the heat conductive sheet of each battery module.

Abstract: A thin battery having an electric connector is provided. The electric connector can be used for plugging a mating connector along a first direction or a second direction. Therefore, when a mating connector is provided on mobile electronic equipment, the thin battery according to the present disclosure can be connected to the mobile electronic equipment along the first direction or second direction through the electric connector, thereby supplying power to it. Apart from the electric connector, the thin battery also includes a base plate, a first flange, a second flange, a third flange, a cover plate, at least two positioning blocks, a battery cell, and a circuit board. The cover plate can be bent toward the base plate and be clamped with the base plate. The electric connector is disposed between the base plate and a top sealing area, and is exposed from the opening.

Abstract: A combination of a thin type battery and a circuit board is provided, including a thin type battery, a circuit board, and a joint connector. The thin type battery includes a shell body, a soft packaging cell, and an electric connector. The joint connector is disposed at the circuit board and connected electrically to a circuit of the circuit board. The soft packaging cell of the thin type battery is disposed in the shell body and includes a battery body and a top sealing area. The electric connector is connected electrically to the soft packaging cell. The electric connector can be plugged into the joint connector in a first direction or a second direction, so that the thin type battery can be plugged into the mobile electronic device through the electric connector in the first direction or second direction, to supply power.

Abstract: A thin battery integrating an electric connector and a battery cell is provided, including a battery cell, a circuit board, an electric connector, and an adhesive tape. The battery cell includes a top sealing area, a first electrode bar, and a second electrode bar. The first electrode bar and the second electrode bar are disposed in the top sealing area of the battery cell. The circuit board is disposed in the top sealing area and includes a first and a second electrode welding pad. The electric connector is disposed in the top sealing area and connected electrically to the circuit board. The adhesive tape wraps the battery cell and the circuit board. The thin battery can be connected to the mobile electronic equipment, having a mating connector, along a first direction or a second direction through the electric connector, thereby supplying power.

Abstract: A thin battery having an electric connector is provided. The electric connector can be used for plugging a mating connector along a first direction or a second direction. Therefore, when a mating connector is provided on mobile electronic equipment, the thin battery according to the present disclosure can be connected to the mobile electronic equipment along the first direction or second direction through the electric connector, thereby supplying power to it. Apart from the electric connector, the thin battery also includes a base plate, a first flange, a second flange, a third flange, a cover plate, at least two positioning blocks, a battery cell, and a circuit board. The cover plate can be bent toward the base plate and be clamped with the base plate. The electric connector is disposed between the base plate and a top sealing area, and is exposed from the opening.

Abstract: An electric connector is provided, including a first insulating body and a plurality of conductive terminals. The first insulating body includes two positioning grooves and a plurality of terminal grooves. Each positioning groove has a first socket and a second socket. A concave portion, a first guiding groove, and a second guiding groove are disposed at a groove wall of each positioning groove. The first guiding groove extends from the first socket in a first direction to the concave portion. The second guiding groove extends from the second socket in a second direction to the concave portion. The terminal grooves are disposed at an interval between the two positioning grooves. Each terminal groove has a third socket and a fourth socket. The conductive terminals are disposed individually in the terminal grooves. A joint connector is capable of being plugged into the electric connector in the first or second direction.