Abstract: A battery module unit for a power supply device is designed so that the value of the adhesive strength between an end plate and an outermost tape and the value of the adhesive strength between a battery module and the outermost tape are greater than or equal to the minimum required strength for holding the battery module and around the minimum required strength. As a result, the battery module does not fall off in a normally held state and the end plate can be easily peeled off from the battery module at the time of reworking.

Abstract: This battery module comprises a secondary battery, a battery holder, a cover member and a pair of extended parts. The secondary battery comprises an electrode assembly, a case and an open valve. The cover member has a main body that faces the open valve. The pair of extended parts are provided between the case and the main body of the cover member. The open valve is positioned between the pair of extended parts. The case, the main body of the cover member and the pair of extended parts form a flow path for a gas that is discharged from the open valve. The battery holder has a lock projection that is locked to the main body of the cover member.

Abstract: This battery module is provided with: a cell having a connection terminal; and a bus bar that is connected to the connection terminal and has an upright standing part that extends in the direction in which the connection terminal protrudes. The bus bar is connected, via a conductive wire, to an object to be connected, which is provided at a position separate from the connection terminal in the extending direction of the upright standing part. The cell is configured so as to be charged and discharged through the bus bar and the conductive wire.

Abstract: A battery pack includes a battery module including a plurality of cells, a housing that accommodates the battery module and is thermally coupled to the battery module, and a temperature adjuster that is thermally coupled and attached to the housing. The temperature adjuster changes a temperature of the housing.

Abstract: A battery module has a plurality of battery bodies. Each of the battery bodies is constituted by a battery holder and a battery cell held by the battery holder and also has two connecting terminals of different polarities. The battery bodies are arranged side by side. The connecting terminals of adjacent battery bodies are connected to each other by a bus bar, and the battery bodies are thereby connected in series. Each battery holder has an indicator that prevents the bus bars from being connected to a part located between bus bars that are adjacent to each other in the arrangement direction of the battery bodies.

Abstract: A battery module includes a battery assembly having battery structures arranged side by side, the battery structures each having a battery body and a battery holder, and a pressure application member. Each battery holder has a first surface, a second surface, a projecting portion, which projects from the first surface and has a distal end face, and a receptacle portion recessed in the second surface. The projecting portion of each battery holder is inserted into the receptacle portion of the adjacent battery holder in a state in which the distal end face is free of contact with the adjacent battery holder. Each battery body contacts the adjacent battery body such that at least one of the first and second surfaces of the battery holder, which holds a battery body, is free from contact with the adjacent battery holder.

Abstract: A battery module includes a battery cell, a heat transfer plate, and a holder. The heat transfer plate is arranged side by side with the battery cell and has an edge and is thermally coupled to the battery cell. The holder holds the battery cell and that has a cutout section to which the heat transfer plate is fitted. The edge of the heat-transmitting plate has a first engagement section that is at least one of a first recess and a first protrusion. The holder has a second engagement section that is at least one of a second protrusion, which is fitted to the first recess and a second protrusions, which is fitted to the first protrusion.

Abstract: A battery module is provided and includes a plurality of rechargeable batteries and a battery cover, wherein the rechargeable batteries are disposed adjacent to each other, each of the rechargeable batteries has a battery case having a wall portion equipped with an open valve that is constructed so as to open when the inner pressure of the battery case rises up to a threshold value, and the battery cover faces the wall portion. The battery cover has a plurality of cover members provided side by side in a direction toward which the rechargeable batteries are disposed adjacent to each other. The cover members include at least adjacent first and second cover members. The first cover member has a first edge portion and the second cover member has a second edge portion overlapped with the first edge portion.

Abstract: A battery pack includes a battery module including a plurality of rechargeable batteries, an electronic component that contributes to charging and discharging of the rechargeable batteries, and an installation body including an extending portion, which extends vertically. The installation body includes a placing portion, which projects from the extending portion in a direction crossing the vertical direction. At least one of the battery module and the electronic component is installed in the extending portion while being placed on the placing portion.

Abstract: A battery module joined to a joint body. Each heat transfer plate of the battery module has a sandwiched portion provided between adjacent battery cells and a joined portion. A first heat conductive layer that contacts a battery cell and has a first thickness is provided on the sandwiched portion of each heat transfer plate. A second heat conductive layer is provided on the facing surface of each heat transfer plate other than the heat transfer plate that is the closest to the joint body when the joined portion is joined to the joint body. The second heat conductive layer is configured to contact the joint body. The second heat conductive layer on the heat transfer plate that is the farthest from the joint body when the joined portion is joined to the joint body has a second thickness, which is greater than the first thickness.

Abstract: A battery module is provided with: battery holders, which have accommodation sections; rechargeable batteries arranged side-by-side while being respectively received in the accommodation sections; a metal plate member, which is provided at least between rechargeable batteries adjacent to each other in the direction in which the rechargeable batteries are arranged side-by-side; and a pressure application member, which presses the rechargeable batteries and the plate member in the direction of the side-by-side arrangement. The battery holders respectively have openings into which the plate members are fitted. The plate members are fitted into the openings to protrude from the battery holders in the direction in which the rechargeable batteries are arranged side-by-side.

Abstract: A battery module includes a first battery stack, a second battery stack, a first bracket, and a second bracket. The first and second battery stacks each have a plurality of rechargeable batteries. The first battery stack has an end adjacent to the second battery stack, and the second battery stack has an end adjacent to the first battery stack. The first bracket is provided at the end of the first battery stack. The second bracket is provided at the end of the second battery stack and has the same shape as the first bracket. Each of the first bracket and the second bracket has insertion protrusions and receiving recesses that are alternately arranged. One of the insertion protrusions of the second bracket is inserted into the receiving recess formed between adjacent two of the insertion protrusions of the first bracket.

Abstract: An industrial vehicle includes a vehicle body and a battery pack, which is placed in the vehicle body. The battery pack includes a counterweight and at least one battery cell, which partially contacts the counterweight. The battery pack is arranged in the vehicle body such that a contact portion of the counterweight that contacts the at least one battery cell exchanges heat with relative wind by a greater amount than a non-contact portion of the at least one battery cell that have no contact with the counterweight.

Abstract: An industrial vehicle is provided with a vehicle body, battery cells, which are the electric power source for the industrial vehicle and are located within the vehicle body, and a counterweight, which is located within the vehicle body. The counterweight has a weight portion and a weight body that extends from the weight portion. The battery cells are provided on both sides of the weight body and are thermally coupled to the weight body.

Abstract: A thermoelectric device includes a thermoelectric element module arranged such that the vertically upper side is the cooling side and the vertically lower side is the heating side. On the cooling side of the thermoelectric element module, a DC-DC converter, a cooler, and a heat-transfer grease layer are arranged in this order from the vertically upper side.

Abstract: A thermoelectric conversion device includes a first board, a second board, which is arranged to face the first board, and thermoelectric elements. One end of each thermoelectric element is joined to a first electrode layer on the first board, and the other end is joined to a second electrode layer on the second board. The thermoelectric conversion device includes reinforcing members. One end of each reinforcing members joined to the first insulating plate, and the other end is joined a second insulating plate. In the thermoelectric conversion device, the coefficient of linear expansion of the reinforcing members is greater than the coefficient of linear expansion of the thermoelectric elements.

Abstract: The method of manufacturing a thermoelectric conversion module includes the steps of providing a first inner surface of a first substrate with plural first electrodes and a first positioning portion, wherein the first positioning portion is located at a predetermined position to the first electrodes without overlapping with the first electrodes, providing a second inner surface of a second substrate with plural second electrodes and a second positioning portion, wherein the second positioning portion is located at a predetermined position to the second electrodes without overlapping with the second electrodes, providing the first electrodes with plural thermoelectric conversion elements, positioning a spacer to the first substrate with a third positioning portion of the spacer on the first positioning portion, and providing the thermoelectric conversion elements with the second electrodes by positioning the second substrate to the spacer with the second positioning portion on a fourth positioning portion of t

Abstract: A thermoelectric conversion module includes a plurality of first substrates and a plurality of second substrates disposed to face each other, a plurality of first electrodes and a plurality of second electrodes, a plurality of thermoelectric conversion elements, a base plate, first fins and second fins. Each inner surface of the first substrate faces the respective inner surface of the second substrate. The first electrode is joined to the respective inner surface of the first substrate and the second electrode is joined to the respective inner surface of the second substrate. The thermoelectric conversion elements are electrically connected to each other through the first and the second electrodes. The base plate is thermally joined to the outer surfaces of the first substrates. Each first fin is thermally joined to the outer surface of the base plate. Each second fin is thermally and directly joined to the respective outer surface of the second substrate.

Abstract: A thermoelectric conversion module includes two substrates, electrodes, thermoelectric conversion elements provided between the substrates and electrically connected in series via the electrodes, a polygonally-shaped thermoelectric conversion element disposition area provided on inner surface of the substrate wherein the thermoelectric conversion elements are disposed in the thermoelectric conversion element area, a fin radiator provided on outer surface of the substrate and a fin disposition area wherein the fin radiator is disposed in the fin disposition area. The fin disposition area and the thermoelectric conversion element disposition area are located on opposite sides of the substrates so as to overlap each other via the substrate.

Abstract: The air-conditioning core includes a plurality of first Peltier devices, a plurality of first fins and a tube. Each of the first Peltier devices has a first surface and a second surface. The first fins are located on the first surfaces of the first Peltier devices. The tube is located adjacent to the second surfaces of the first Peltier devices. The tube has a main portion extending around the second surfaces of the first Peltier devices and also around the first fins for holding the first Peltier devices, an inlet portion connected to the main portion for allowing heat exchange medium of liquid to flow into the main portion, and an outlet portion connected to the main portion for allowing the heat exchange medium of liquid to flow out of the main portion. The outlet portion is located adjacent to the inlet portion.