Abstract: An energy storage device includes an outer case including a lid plate on which an external terminal is mounted, a plate including a tab and housed in the outer case, a conductive shaft portion penetrating the lid plate and including one end thereof connected to the external terminal, and a conductive plate portion housed in the outer case, and including a first surface to which an other end of the conductive shaft portion is connected and a second surface to which the tab is connected. A size of the conductive plate portion is set larger than a size of the external terminal in a planar direction of the lid plate.

Abstract: Provided is a method for manufacturing an energy storage device. In the method of manufacturing an energy storage device, a lid assembly is formed by integrating a lid plate covering an opening of a case which houses a plate, an external terminal exposed to outside of the lid plate, and a conductive plate portion disposed inside the lid plate in an overlapping manner. The lid assembly is disposed between a vibrating jig and a receiving jig, a tab of the plate is disposed between the conductive plate portion and the vibrating jig, and ultrasonic welding is applied to the tab and the conductive plate portion.

Abstract: An energy storage device includes an outer case including a lid plate on which an external terminal is mounted, a plate including a tab and housed in the outer case, a conductive shaft portion penetrating the lid plate and including one end thereof connected to the external terminal, and a conductive plate portion housed in the outer case, and including a first surface to which an other end of the conductive shaft portion is connected and a second surface to which the tab is connected. A size of the conductive plate portion is set larger than a size of the external terminal in a planar direction of the lid plate.

Abstract: Provided is an energy storage device which can sufficiently reduce a resistance of a current path. An energy storage device includes: an outer case having a lid plate on which an external terminal is mounted; a plate having a tab and housed in the outer case; a conductive shaft portion penetrating the lid plate and having one end thereof connected to the external terminal; and a conductive plate portion housed in the outer case, and having a first surface to which the other end of the conductive shaft portion is connected and a second surface to which the tab is connected, wherein a size of the conductive plate portion and a size of the tab are respectively set larger than a size of the external terminal in a planar direction of the lid plate.

Abstract: An energy storage device includes an outer case on which an external terminal is mounted; an electrode assembly housed in the outer case; a conductive shaft portion formed using a material different from a material for forming the external terminal, and having a swaged portion connected to the external terminal at one end thereof in an axial direction; a conductive plate portion housed in the outer case, to which the other end of the conductive shaft portion is connected, and the electrode assembly is connected. The external terminal has a plating layer or an alumite treated layer on a surface thereof which is brought into contact with the swaged portion.

Abstract: An energy storage device, includes a terminal; an electrode assembly having a body portion and a tab portion projecting from the body portion; and a current collector electrically connecting the terminal and the tab portion with each other. The current collector is configured such that a plate portion and a second plate portion which opposedly face each other are continuously formed with each other with curved portion interposed therebetween, and a thickness of the curved portion is set smaller than a thickness of the first plate portion and a thickness of the second plate portion.

Abstract: An energy storage device includes: an electrode assembly; a case for accommodating the electrode assembly; a spacer interposed between the case and the electrode assembly; and a strip-like member being brought into contact with each of a side surface of the spacer and a side surface of the electrode assembly and fixing the spacer and the electrode assembly to each other. A portion of the spacer with which the strip-like member is brought into contact is wholly formed of a recessed portion.

Abstract: Provided is an energy storage device which can sufficiently reduce a resistance of a current path. An energy storage device includes: an outer case having a lid plate on which an external terminal is mounted; a plate having a tab and housed in the outer case; a conductive shaft portion penetrating the lid plate and having one end thereof connected to the external terminal; and a conductive plate portion housed in the outer case, and having a first surface to which the other end of the conductive shaft portion is connected and a second surface to which the tab is connected, wherein a size of the conductive plate portion and a size of the tab are respectively set larger than a size of the external terminal in a planar direction of the lid plate.

Abstract: An energy storage device and the energy storage module include: an outer case on which an external terminal is mounted; an electrode assembly housed in the outer case; a conductive shaft portion having one end thereof connected to the external terminal; and a conductive plate portion housed in the outer case, to which the other end of the conductive shaft portion is connected, and the electrode assembly is connected. A recessed portion is formed on a first surface of the external terminal on which a bus bar is placed, and a second surface of the external terminal opposedly faces the outer case. One end of the conductive shaft portion is brought into pressure contact with the external terminal in the inside of the recessed portion. The recessed portion formed on the external terminal is gas-tightly covered by the bus bar.

Abstract: Provided is a method for manufacturing an energy storage device. In the method of manufacturing an energy storage device, a lid assembly is formed by integrating a lid plate covering an opening of a case which houses a plate, an external terminal exposed to outside of the lid plate, and a conductive plate portion disposed inside the lid plate in an overlapping manner. The lid assembly is disposed between a vibrating jig and a receiving jig, a tab of the plate is disposed between the conductive plate portion and the vibrating jig, and ultrasonic welding is applied to the tab and the conductive plate portion.

Abstract: To provide an energy storage device where internal short circuiting of an electrode assembly can be prevented while ensuring easy assembling of the energy storage device. An energy storage device according to an aspect of the present invention includes: an electrode assembly which has an electrode assembly body formed by stacking a positive electrode plate, a separator and a negative electrode plate, and tabs extending from the positive electrode plate and the negative electrode plate; a case formed of a case body which accommodates the electrode assembly therein and a lid plate which closes the case body; an external terminal fixed to the lid plate and electrically connected to the tab; a spacer disposed between the electrode assembly body and the lid plate and having rigidity; and a porous cushion sheet disposed between the spacer and the electrode assembly body having cushioning property, wherein the cushion sheet is welded to the spacer.

Abstract: An energy storage device includes: an electrode assembly; a case for accommodating the electrode assembly; a spacer interposed between the case and the electrode assembly; and a strip-like member being brought into contact with each of a side surface of the spacer and a side surface of the electrode assembly and fixing the spacer and the electrode assembly to each other. A portion of the spacer with which the strip-like member is brought into contact is wholly formed of a recessed portion.

Abstract: To realize the stabilization of an energy storage device while forming a current collector per se in a compact shape. An energy storage device 10 includes a terminal (negative electrode terminal 300), an electrode assembly 400 having a body portion 430 and tab portions 420 projecting from the body portion 430, and a current collector (negative electrode current collector 150) electrically connecting the terminal and the tab portions 420 with each other. The current collector is configured such that a first plate portion 1521 and a second plate portion 522 which opposedly face each other are continuously formed with each other with a curved portion 1513 interposed therebetween. A thickness t of the curved portion 1513 is set smaller than a thickness t2 of the first plate portion 1521 and a thickness t2 of the second plate portion 1522.

Abstract: In a waterproof case for a camera, a case body which accommodates a lens barrel includes a fixed cylindrical member detachably attached to a camera body, a rotating cylindrical member relatively rotatably connected to a front opening of the fixed cylindrical member, and a movable cylindrical member which is accommodated in the rotating cylindrical member and which can reciprocate. A first seal is provided on a bonding portion of the fixed cylindrical member and the camera body, a second seal is provided on a bonding portion of the fixed cylindrical member and the rotating cylindrical member, and a third seal is provided on a bonding portion between the rotating cylindrical member and the movable cylindrical member. An engaging surface which contacts with an outer surface of the zoom ring of the lens barrel is provided on an inner surface of the rotating cylindrical member.

Abstract: A chip conveyer including an endless conveying member (18) that circulates in a predetermined direction for receiving chips discharged from a machine tool in a receiving zone, conveying the chips to a discharge position (E2) spaced from the receiving zone at a predetermined interval, and discharging the chips at the discharge position. A conveying member (18) travels along a forward route (R2) from an end (E1) of the receiving zone to a turning point (E2) of the conveying member (18), discharges the chips at the turning point (E2), and travels along a return route (R3) from the turning point (E2) to a return point (E3) where the conveying member (18) is returned to the receiving zone. The conveying member (18) enters the liquid reservoir (31) while moving along the return route (R3) such that the chips adhered to the conveying member due to an oil component are separated in liquid in the liquid reservoir (31). A liquid supply device supplies the liquid to the liquid reservoir (31).

Abstract: A collapsible chip conveyer includes a conveying member having a forwarding portion and a return portion. The conveying member receives chips discharged from a machining tool at a receiving position set on the forwarding portion, conveys the chips to a discharge position, which is located on the forward portion and spaced from the receiving position by a predetermined distance, and discharges the chips from the discharge position. The conveying member has a guide rail, a frame, and a hinge mechanism. Also, the conveying member includes a plurality of separation portions, each of which includes a part of the guide rail and a part of the frame. The hinge mechanism has a rotation axis, which is located between the forwarding portion and the return portion, and couples the separation portions such that the separation portions pivots about the rotation axis between a collapsed position and an opened position.

Abstract: A chip conveyor (K) which receives chips delivered from a machine tool (MC) in a receiving area (R1) transfers chips to a delivery position a specified distance apart from the receiving area, and is provided with an endless carrier (18) rotatably in a specified direction to deliver chips at the delivery position, characterized in that a passage ranging from the receiving area to the delivery position is used as a go route (R2) for the carrier, a passage ranging from the delivery position back to the receiving position is used as a return route (R3) for the carrier, and a separating device (25) which separates chips from the carrier by allowing liquid to act on the chips adhering to the carrier which passes the delivery position so that their adhesiveness is reduced or eliminated is installed in the return route, whereby the residual chips can be removed efficiently from the carrier so as to increase the durability of the carrier and a drive mechanism.

Abstract: An apparatus electrochemically removes fine metal particles from an oil in water emulsion. The apparatus has a container for accommodating the emulsion. A supply port supplies the emulsion to the container. A plurality of cathode plates and anode plates are located in the container to face each other. The water in the emulsion is electrolyzed when a predetermined direct voltage is applied between the plates. The fine metal particles float with hydrogen generated by the electrolysis. Al(OH)3 attaches to H2 bubbles. A discharge port is located in a lower part of the container for discharging the emulsion from which the fine metal particles, sludge, oil and greese have been removed.

Abstract: A collapsible chip conveyer includes a conveying member having a forwarding portion and a return portion. The conveying member receives chips discharged from a machining tool at a receiving position set on the forwarding portion, conveys the chips to a discharge position, which is located on the forward portion and spaced from the receiving position by a predetermined distance, and discharges the chips from the discharge position. The conveying member has a guide rail, a frame, and a hinge mechanism. Also, the conveying member includes a plurality of separation portions, each of which includes a part of the guide rail and a part of the frame. The hinge mechanism has a rotation axis, which is located between the forwarding portion and the return portion, and couples the separation portions such that the separation portions pivots about the rotation axis between a collapsed position and an opened position.

Abstract: A conveyor is provided with a casing (2), an endless conveyor belt (9) located in the casing (2) to circulate. The conveyor belt (9) has a pair of roller chains (11) attached to the peripheral edges on each side of the belt. Each roller chain (11) has a plurality of rollers (13). The casing (2) is provided with a lower split body (14) and an upper split body (15) fixed on the lower split body (14). The lower split body (14) has a pair of side frame members (17 and 18) formed by press molding. The side frames (17 and 18) each have a lower supporting portion (20) and an upper supporting portion (22), for supporting the rollers (13). That is, some portions of the casing (2) serve as the roller supporting portions (20,22). This reduces the number of steps in the manufacture of conveyors, facilitates manufacture of the same, and reduces the manufacturers' cost.