Abstract: A battery apparatus for a vehicle is provided. The apparatus includes a basic battery pack that is mounted within the vehicle and an auxiliary battery pack that is selectively mountable within the vehicle. The auxiliary battery pack is connected in series with or in parallel to the basic battery pack.

Abstract: A high voltage battery apparatus for a vehicle is provided. The battery apparatus is installed in a lower portion of the vehicle and includes a plurality of battery modules and a cooling unit that has a plurality of cavities in which the battery modules are inserted and fixed. The cooling unit has a hollow portion through which cooling water flows, thereby cooling the battery modules using the cooling water.

Abstract: A battery pack structure of a vehicle, may include a cell module assembly formed by stacking a plurality of cell modules, end plates coupled to both side end portions of the cell module assembly, and support plates coupled to the top and the bottom of the cell module assembly and both side end portions of the end plates to bring the cell modules in contact with each other.

Abstract: A battery module includes a cell assembly comprising a plurality of cells; a module housing including an upper housing having a closed inner space accommodating the cell assembly and a lower housing air-tightly attached to a lower end of the upper housing; and an air vent member air-tightly disposed at one side of the module housing to discharge inner gas of the module housing to the outside, the air vent member being configured to block external gas from entering into the module housing.

Abstract: A battery cooling device for a vehicle is provided. The device repeats phase changes of a refrigerant to cool a battery due to heat of vaporization when a liquid-state refrigerant is vaporized by thermally coming in contact with a battery heat source. The vaporized refrigerant is changed back into a liquid state by thermally coming in contact with a separate coolant. The effect of cooling all battery cells is maximized throughout the entire refrigerant channel for cooling a battery and the battery cells are cooled uniformly.

Abstract: A cooling device, which cools a battery by effectively dissipating heat generated from the battery, which is used, for example, in eco-friendly vehicles, is provided to increase the rate of battery charging and the reliability of the battery. The cooling device includes a pair of coolant pipes that introduce and discharge a coolant and a cooling channel that connects the coolant pipes to each other to move the coolant from a first coolant pipe to a second coolant pipe. Additionally, a heat transfer plate is coupled to the cooling channel and has a contact surface configured to be in surface contact with a heat-emitting element.

Abstract: A battery module includes: a cell cover close to a battery cell and having one surface emitting heat of the battery cell; and a cooling channel portion having a cooling channel that a refrigerant flows formed therein and having one surface of the cooling channel close to the one surface of the cell cover to absorb heat of the battery cell. In a contact region of the cell cover and the cooling channel portion, the cell cover has a protrusion portion protruded in the direction of the cooling channel, and the cooling channel has a penetration hole for inserting the protrusion portion into an inner portion that the refrigerant flows.

Abstract: A battery cooling system includes: a housing in which an inlet duct from which air is introduced and an outlet duct through which the air is discharged are mounted; a first battery mounted in the housing and disposed between the inlet duct and the outlet duct; and a low voltage battery disposed between the first battery and the inlet duct.

Abstract: A system and a controlling method for extinguishing a fire in a battery of a vehicle is provided for preventing the vehicle from being completely burned out and protecting consumer's physical assets by injecting cooling water of a water cooling system when a fire occurs in a battery to extinguish the fire of the battery at an early stage and by supplying an external cooling material from outside of the vehicle to extinguish the fire of the battery when the fire of the battery is not extinguished at the early stage.

Abstract: A water-cooled battery module of an electric vehicle is provided. According to the water-cooled battery module, cooling efficiency between a heat exchange pad and battery cells is enhanced since the heat exchange pad through which a cooling medium flows is made of a material having high heat transfer efficiency. Further, since heat dissipation plates with which the battery cells contact are in uniform surface contact with the heat exchange pad, cooling efficiency is enhanced by virtue of the uniform contact.

Abstract: A high voltage battery apparatus for a vehicle is provided. The battery apparatus is installed in a lower portion of the vehicle and includes a plurality of battery modules and a cooling unit that has a plurality of cavities in which the battery modules are inserted and fixed. The cooling unit has a hollow portion through which cooling water flows, thereby cooling the battery modules using the cooling water.

Abstract: A safety device for preventing overcharging of a battery includes: a battery stack including a plurality of cells; a safety circuit connected to two or more cells and provided with an electrical conduction control unit that controls electrical conduction; and a closed circuit disposed between the cells connected to the safety circuit and provided with a switching unit which is switched on or off upon cell swelling, such that when cell swelling occurs, the switching unit is switched on by a pressing force, disabling the electrical conduction control unit of the safety circuit so electrical conduction between the cells is established via the switching unit, and when cell swelling occurs again, the switching unit is switched off, cutting off the electrical conduction between the cells.

Abstract: An integration battery for a vehicle includes: a housing in which an inlet duct from which air is introduced and an outlet duct through which the air is discharged are mounted; a high voltage battery mounted in the housing and disposed between the inlet duct and the outlet duct; and a low voltage battery disposed between the high voltage battery and the inlet duct.

Abstract: An apparatus for preventing battery overcharge is provided and includes a plurality of holders interposed between cells stacked within a battery to enclose the cells in a stacking direction. An installation space is formed between outer parts of at least two holders that enclose the cells. In addition, a fluid pouch is disposed within the installation space and adjacent to the cells inside the installation space, and contains a fluid therein. A cutting part is disposed within the installation space and has a first end disposed adjacent to the fluid pouch, and has a cutter edge heading between a lead tab and a bus bar at a second end of the cutting part.

Abstract: A battery apparatus for a vehicle is provided. The apparatus includes a basic battery pack that is mounted within the vehicle and an auxiliary battery pack that is selectively mountable within the vehicle. The auxiliary battery pack is connected in series with or in parallel to the basic battery pack.

Abstract: A battery device is provided. The battery device includes a battery module having a plurality of battery cells and a plurality of plates disposed between the plurality of battery cells to perform a heat exchange and a battery housing that accommodates the battery module and has opened apertures through which the plurality of plates protrude to the exterior. A heat sink includes a plurality of discharge grooves formed therein to fixedly insert the plurality of plates into the plurality of discharge grooves, seal the battery housing, and discharge heat of the plates. In particular, a sealing structure of the battery module reduces humidity to improve robustness and stability and improve the reliability of a product, and volume energy density. Further the mass energy density is improved by an indirect cooling and a gas discharge venting performed in a unit of the battery module, increasing marketability.

Abstract: A battery module includes a cell assembly comprising a plurality of cells; a module housing including an upper housing having a closed inner space accommodating the cell assembly and a lower housing air-tightly attached to a lower end of the upper housing; and an air vent member air-tightly disposed at one side of the module housing to discharge inner gas of the module housing to the outside, the air vent member being configured to block external gas from entering into the module housing.

Abstract: An apparatus preventing overcharging of a battery and a battery including the apparatus are provided. The apparatus includes holders interposed on respective gaps between battery cells to be stacked and an installation space formed between borders of adjacent holders. A cutting module is inserted into the installation space and an inserted end thereof is disposed between the cells adjacent to an inner side of the installation space to be fixed to a holder and an exposed end thereof has a cutter blade directed to a gap between a lead tap and a bus bar bonded together that is formed. The gap between the ends is connected with a plurality of hinges to compress the hinges to be unfolded when the cell is expanded in a side direction and to deploy the exposed end outwardly for the cutter blade to separate the bonding of the lead tap and the bus bar.

Abstract: A method for manufacturing a thermal interface material is provided. The thermal interface material including a thermal conductive filler, a polymer matrix having an elastic force and applied to the thermal conductive filler, and an insulating coating layer applied to sides of the thermal conductive filler and the polymer matrix may be manufactured by: providing the thermal conductive filler in a plate film form as a filler material forming the thermal conductive filler is dissolved in a solvent; and coating the thermal conductive filler in a plate film form with the polymer matrix. As such, the high heat radiation thermal interface material (a maximum of thermal conductivity of 20 W/mK) may be manufactured in more various thickness than the conventional thermal interface material (a maximum of thermal conductivity of 5 W/mK).

Abstract: Disclosed is an inside ventilation system of a vehicle for a driver or an occupant to achieve a more comfortable inside environment in the summer or winter. The inside ventilation system includes a control unit configured to receive an operating signal from a smart key, sense an inside temperature of the vehicle when the operating signal is transferred and judging whether the inside temperature is deviated from a required temperature range; a comparison process of comparing the inside temperature and a battery temperature when the inside temperature is deviated from the required temperature range; and a control process of controlling a heating, ventilation, and air conditioning system (HVAC) and an operation of a battery operated fan by comparing the inside temperature and the battery temperature.