Abstract: A power storage module is provided with: a pair of end plates for clamping a plurality of secondary cells arranged in parallel in one direction; first and second cover members fixed to one end plate of the pair of end plates, the first and second cover members being arranged facing the top surface of an enclosure, an electrode terminal being provided on the top surface; through-holes formed in the first and second cover members, the through-holes extending in the one direction; and engaging protrusions provided to first cell holders, the engaging protrusions protruding in the direction in which the first and second cover members are arranged, and being engaged with the first and second cover members, with the engaging protrusions passed through the through-holes.

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 fryer includes a potential generator; and an oil tub installed with a discharging electrode of the potential generator. The potential generator includes a transformer that is composed of a primary coil and a secondary coil; a feedback control circuit that feeds back one terminal of the secondary coil to one terminal of the primary coil to adjust a voltage of the secondary coil; an output control portion that is provided on the other terminal of the secondary coil to impart a predetermined low frequency vibration to an output of the secondary coil which causes the discharging electrode physically vibrates; and the discharging electrode that is formed of a conductive material and provided on the other terminal of the secondary coil via the output control portion. A vibration frequency of the low frequency vibration applied is 40 Hz to 60 Hz which is determined by the output control portion.

Abstract: A battery module includes battery cells, a cover, a conductor, first and second end plates, an elastic body, and a fixing plate. The first and second end plates hold the battery cells from the opposite ends in the aligning direction. The elastic body is arranged between the second end plate and the battery cell that is adjacent to the second end plate. The fixing plate is arranged between the elastic body and the battery cell that is adjacent to the elastic body. The elastic body is configured to be elastically deformed to absorb a load applied to the first and second end plates as the battery cells expand. The fixing plate is fixed to the cover and configured to move with the cover in the aligning direction of the battery cell as the battery cells expand.

Abstract: A battery module is configured to be fixed to a fixed member. The battery module includes a battery body, a first end plate and a second end plate, an elastic member, and a pressing member. The battery body includes battery cells and a heat transmission plate arranged adjacent to at least one of the battery cells. The first and second end plates are arranged at two ends of the battery body. The elastic member is arranged between the first end plate and the battery body. The pressing member applies load to the first and second end plates. The heat transmission plate includes a heat absorption portion and a heat releasing portion. The heat absorption portion is arranged adjacent to the battery cell. The heat releasing portion extends from the heat absorption portion toward the second end plate and is in contact with the fixed member.

Abstract: A space potential generator includes a transformer formed by magnetically connecting a primary coil and a secondary coil, a feedback control circuit feeding back one terminal of the secondary coil to one terminal of the primary coil to adjust voltage of the secondary coil, an output control portion provided on the other terminal of the secondary coil to impart low frequency vibration to an output of the secondary coil, a static electricity discharger formed of conductive material and provided on the other terminal of the secondary coil via the output control portion, the space potential generator does not have a grounding electrode, a weak current flowing through the secondary coil is 0.002 to 0.2 A, the static electricity discharger is covered with an insulating member to discharge predetermined static electricity to surrounding space, and electric field of target voltage is formed in the surrounding space by the discharged static electricity.

Abstract: A battery module has aligned battery cells, two plate members provided on the opposite ends in the aligning direction of the battery cells, fasteners joined to the plate members to integrate the battery cells, at least one connection bus bar, which connects terminals of adjacent battery cells in the aligning direction, and an elastic member, which absorbs expansion of the battery cells in the aligning direction. Each connection bus bar includes two connection portions connected to the terminals and a bend portion located between the two connection portions. In response to expansion in the aligning direction of the battery cells, the bend portion is extendable in the aligning direction. A total allowed deformation amount, which is based on the allowed deformation amount of the bend portions in the aligning direction, is set to be greater than or equal to the thickness in the aligning direction of the elastic member.

Abstract: A sample feeding apparatus includes a first cylinder, a second cylinder, and a sealing section. The first cylinder is configured to be mounted with a sample tube. The second cylinder is configured to move the first cylinder between a first position and a second position, the first position being for mounting of the sample tube, the second position being for feeding of a sample in the sample tube. The sealing section is configured to cover the sample tube, the sample tube being mounted to the first cylinder being at the second position, the first cylinder applying pressure to an inner space of the sealing section at the second position.

Abstract: A motor causes a shaft of an actuator to be displaced in an axis direction thereof, at least part of a circuit for driving the motor being mounted on a circuit board. A notch is formed in an end edge of the circuit board. A protrusion is formed inside a case. The protrusion is fitted into the notch, whereby the circuit board is independently supported inside the case.

Abstract: A chatter vibration suppressing method includes acquiring a moment of inertia of a rotating body, recording a value indicating the acquired moment of inertia into a machining program, and calculating a variable amplitude and a variable period when a rotation speed of the rotating body is varied in order to suppress chatter vibration from the value indicating the moment of inertia recorded in the machining program and the maximum input power of a motor for rotating the rotating body.

Abstract: A sample feeding apparatus includes a first cylinder, a second cylinder, and a sealing section. The first cylinder is configured to be mounted with a sample tube. The second cylinder is configured to move the first cylinder between a first position and a second position, the first position being for mounting of the sample tube, the second position being for feeding of a sample in the sample tube. The sealing section is configured to cover the sample tube, the sample tube being mounted to the first cylinder being at the second position, the first cylinder applying pressure to an inner space of the sealing section at the second position.

Abstract: A negative-electrode stuff has negative-electrode active-material particles including: an element being capable of sorbing and desorbing lithium ions, and being capable of undergoing an alloying reaction with lithium; or/and an elementary compound being capable of undergoing an alloying reaction with lithium. The negative-electrode active-material particles includes particles whose particle diameter is 1 ?m or more in an amount of 85% by volume or more of them when the entirety is taken as 100% by volume, exhibit a BET specific surface area that is 6 m2/g or less, and exhibits a “D50” that is 4.5 ?m or more.

Abstract: A negative-electrode stuff has negative-electrode active-material particles including: an element being capable of sorbing and desorbing lithium ions, and being capable of undergoing an alloying reaction with lithium; or/and an elementary compound being capable of undergoing an alloying reaction with lithium. The negative-electrode active-material particles includes particles whose particle diameter is 1 ?m or more in an amount of 85% by volume or more of them when the entirety is taken as 100% by volume, exhibit a BET specific surface area that is 6 m2/g or less, and exhibits a “D50” that is 4.5 ?m or more.

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 fastening member includes a column member, a first screw, and a second screw. The column member has a first end and a second end in the axial direction. The first screw is provided at the first end. The second screw is provided at the second end. The column member is configured so that a jig is axially fitted thereover from the second end, and so that rotating the jig having been fitted over the column member engages the first screw with a first body to be fastened. The first screw and the second screw have different axial lengths. The column member has a protrusion which prevents the jig from being fitted from the first end over the column member up to a position at which the jig can rotate the column member.

Abstract: A battery module includes battery cells, a cover, a conductor, first and second end plates, an elastic body, and a fixing plate. The first and second end plates hold the battery cells from the opposite ends in the aligning direction. The elastic body is arranged between the second end plate and the battery cell that is adjacent to the second end plate. The fixing plate is arranged between the elastic body and the battery cell that is adjacent to the elastic body. The elastic body is configured to be elastically deformed to absorb a load applied to the first and second end plates as the battery cells expand. The fixing plate is fixed to the cover and configured to move with the cover in the aligning direction of the battery cell as the battery cells expand.

Abstract: A motor causes a shaft of an actuator to be displaced in an axis direction thereof, at least part of a circuit for driving the motor being mounted on a circuit board. A notch is formed in an end edge of the circuit board. A protrusion is formed inside a case. The protrusion is fitted into the notch, whereby the circuit board is independently supported inside the case.

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 pack has a sealed case. Battery modules are housed in the sealed case. Each battery module contains multiple battery cells. The sealed case has a main body having an opening. The opening in the main body is closed by a rectangular plate-shaped lid member. The lid member has a first releasing portion and a second releasing portion, which are opened when the internal pressure of the sealed case increases. The second releasing portion is arranged below the first releasing portion in the vertical direction.

Abstract: A battery module has aligned battery cells, two plate members provided on the opposite ends in the aligning direction of the battery cells, fasteners joined to the plate members to integrate the battery cells, at least one connection bus bar, which connects terminals of adjacent battery cells in the aligning direction, and an elastic member, which absorbs expansion of the battery cells in the aligning direction. Each connection bus bar includes two connection portions connected to the terminals and a bend portion located between the two connection portions. In response to expansion in the aligning direction of the battery cells, the bend portion is extendable in the aligning direction. A total allowed deformation amount, which is based on the allowed deformation amount of the bend portions in the aligning direction, is set to be greater than or equal to the thickness in the aligning direction of the elastic member.