Abstract: A cell stack assembly, including: a plurality of stacked battery cells, each including an electrode assembly; a laminate exterior packaging that covers the electrode assembly and encloses the electrode assembly internally; and a fixing tape, including at least one of an inner fixing tape wound in a peripheral direction onto an outer peripheral face of the electrode assembly at an inner side of the laminate exterior packaging, or an outer fixing tape wound in a peripheral direction onto an outer peripheral face of the laminate exterior packaging, wherein: taking a direction in which the plurality of battery cells are stacked as a stacking direction, the fixing tape is wound such that winding positions of the fixing tape do not overlap in the stacking direction for at least one adjacent pair of the battery cells.

Abstract: A routing structure includes a first fixing portion fixed to a vehicle body of a vehicle, a second fixing portion fixed to a slide body that moves along a vehicle front-rear direction at an opening provided in a roof of the vehicle body, an exterior member having a first end portion held by the first fixing portion and a second end portion held by the second fixing portion, an electric wire disposed inside the exterior member, and an urging member disposed inside the exterior member and having a curved portion curved in a vehicle front-rear direction between the first end portion and the second end portion in the exterior member.

Abstract: A routing structure includes: a first fixed portion fixed to a vehicle body of a vehicle; a second fixed portion fixed to a sliding body that moves in a vehicle front-rear direction with respect to an opening provided in a roof of the vehicle body; an exterior member that has a first end portion held by the first fixed portion and a second end portion held by the second fixed portion; an electric wire inserted into the exterior member; a plate-shaped biasing member inserted into the exterior member and forms a curved portion curved in the vehicle front-rear direction between the first end portion and the second end portion of the exterior member; and a suppressing portion provided on the biasing member and increases rigidity of a portion forming the curved portion to suppress the biasing member from having a narrowing shape at the curved portion.

Abstract: This polyamide resin composition includes a polyamide resin and a copper-based heat-resistant stabilizing agent. The copper content in the copper-based stabilizing agent is 0.001-0.050 parts by mass with respect to 100 parts by mass of the polyamide resin. The polyamide resin includes a dicarboxylic acid-derived component unit (a) and a diamine-derived component unit (b). The dicarboxylic acid-derived component unit (a) includes an aromatic dicarboxylic acid-derived component unit or an alicyclic dicarboxylic acid-derived component unit. The diamine-derived component unit (b) includes a diamine-derived component unit (b2) represented by formula (1) in an amount of 10 mol % or more but less than 50 mol % with respect to the total number of moles of the diamine-derived component unit (b).

Abstract: The service hole cover member is formed as the two-layer laminated body in which the cushion layer and the board member with sound-insulating performance and rigidity are laminated in this order. The cushion layer is formed of flexible elastic material with sound-absorbing performance and waterproof performance.

Abstract: Provided is an electric compressor which comprises a housing, a compressor for compressing a refrigerant including lubricating oil, and a motor which rotationally drives the compressor, wherein: the motor comprises a stator, a rotor, a plurality of lead wires connected to a plurality of coil portions, and protecting tubes which are arranged in such a way as to surround the entire circumference of the lead wires, and which protect the lead wires from moisture contained in the lubricating oil, the lead wires are coated with a resin coating portion and are arranged in a circumferential direction around an axis; and the protecting tubes are arranged only in a protection area in a portion of the circumferential direction including an area in which the lead wires are immersed in the lubricating oil stored in an internal space of the housing.

Abstract: A battery cell includes an electrode body in which a plurality of laminated structures having a cathode, an anode, and a separator interposed between the cathode and the anode are further laminated, and a tape wound around the outer periphery of the electrode body over one circumference, wherein the tape has an overlapping portion in which one side and the other end side in an outer peripheral direction overlap each other, and a direction in which a plurality of laminated structures are laminated in the electrode body is defined as a lamination direction, and in a case where an end surface in a lamination direction in the electrode body is defined as a lamination surface, the overlapping portion is disposed on a surface other than the lamination surface in the electrode body.

Abstract: A laminated battery, a battery element, and a laminate film enclosing the battery element, wherein the laminate film has a fused portion in which end portions are overlapped and an inner surface is fused, and the laminate film has a fused portion side surface in which a fused portion is formed, an opposite side surface opposed to the fused portion side surface, and a pair of main surfaces orthogonal to the fused portion side surface and the opposite side surface and having an area larger than the fused portion side surface and the opposite side surface, and the laminate film has an uneven shape on at least one of the fused portion side surface and the opposite side surface.

Abstract: The purpose of the present invention is to improve insulating properties. This terminal unit (30) comprises: a plate-shaped base unit (40); a plate-shaped insulation unit (51) and a fitting insulation unit (52) that cover the plate surface of the base unit; a terminal (70) that extends in the Z axis direction, which is the direction intersecting the plate surface of the base unit (40), and penetrates the base unit (40) and the plate-shaped insulation unit (51); and an upper cylinder insulation unit (53) that extends along the Z axis direction from the plate-shaped insulation unit (51) and covers the side surface of the terminal (70). The plate-shaped insulation unit (51) and the upper cylinder insulation unit (53) are formed integrally.

Abstract: Each mixed main body of a plurality of mixed members is formed from a pulverized raw material of a steric shape, of a plurality of pulverized raw materials obtained by pulverizing a layered composite raw material into various shapes including the steric shape and a linear shape. Each mixed glass fiber portion of the plurality of mixed members is formed by a plurality of glass fibers extending by the pulverization from a portion of the mixed main body corresponding to a glass fiber layer. Each mixed glass fiber portion of the plurality of mixed members is located in a labyrinthine path formed between mixed main bodies facing each other among the plurality of mixed members in a stirred mixture body including the plurality of mixed members stirred and mixed in a binder and the binder.

Abstract: Provided is an electronic device housing including a metal member and a plastic antenna cover that are joined and integrated by insert molding. In this electronic device housing, the plastic antenna cover is a molded product of a thermoplastic resin composition containing a thermoplastic polyester resin having a melting point Tm equal to or higher than 250° C.

Abstract: In order to solve a problem that a large load is applied to a particular shaft of a transfer robot in accordance with acceleration during transfer of a transfer target, a control apparatus for controlling a transfer robot having a hand portion and an arm portion includes: a calculating portion that calculates an inclination angle that is an angle of a leading shaft, which is a horizontal shaft on a leading end side of the arm portion, and a vertical velocity that is a velocity in an upper-lower direction of the hand portion such that, during movement of the transfer target, among moments that are applied to the leading shaft, a first moment according to force of inertia in association with the movement and a second moment according to the gravity weaken each other, and that a normal velocity component that is a velocity component of the hand portion in a normal direction of the transfer target is reduced; and a control portion that controls the arm portion according to a result of the calculation.

Abstract: In order to solve a problem that a large load is applied to a particular shaft of a transfer robot in accordance with acceleration during transfer of a transfer target, a control apparatus for controlling a transfer robot having a hand portion and an arm portion includes: a calculating portion that calculates an inclination angle that is an angle of a leading shaft, which is a horizontal shaft on a leading end side of the arm portion, and a vertical velocity that is a velocity in an upper-lower direction of the hand portion such that, during movement of the transfer target, among moments that are applied to the leading shaft, a first moment according to force of inertia in association with the movement and a second moment according to the gravity weaken each other, and that a normal velocity component that is a velocity component of the hand portion in a normal direction of the transfer target is reduced; and a control portion that controls the arm portion according to a result of the calculation.

Abstract: A mercury-free vehicle discharge lamp is described as including a discharge space with electrodes, wherein a spherical length b, which is a length in a tube axial direction of the light emitting part is 7.5 mm to 8.5 mm and a thickness volume V of the light emitting part is 50 mm3 to 100 mm3, and wherein the following formula is satisfied: ?20?(a?35)×5.5+(x?13.5)×10 +(1.85?t)×100+(2.5?d)×100?20, a: power W supplied in a stable lighting time, x: pressure [atm] of rare gas sealed in the discharge space ranging 10˜17 atm, t: thickness [mm] of a part where a wall with maximum thickness and ranging 1.30˜1.85 mm, and d: inner diameter [mm] of a part where the wall with maximum thickness.

Abstract: A concentrating solar power generation unit (10) comprises a solar cell element (1), a mounting plate (3) on which is mounted the solar cell element (1), which is bonded to a receiver (2), a light shield (4) that covers the mounting plate (3), a frame (5) disposed perpendicularly from the ends on two facing sides of a light shield (4), a concentrating lens (7) that is disposed corresponding to the upper end of the frame (5) across from the light shield (4) and that concentrates sunlight (Ls) on a light receiving region of the solar cell element (1), and a translucent substrate (6) that fixes (fastens) the concentrating lens (7) and is mounted to the upper end of the frame (5).

Abstract: Provided is a mercury-free vehicle discharge lamp that is stably lighted with a power of 18 to 30 W in a steady time. The lamp is defined in a light-emitting portion (11). A discharge medium including a metal halogen compound and a rare gas are sealed into the lamp. The lamp also has a discharge space in which electrodes (32) are disposed and satisfies the following equation. ?40?(a?35)×5.5+(x?13.5)×10+(1.85?t)×100+(2.

Abstract: A concentrating solar power generation unit (10) comprises a solar cell element (1), a mounting plate (3) on which is mounted the solar cell element (1), which is bonded to a receiver (2), a light shield (4) that covers the mounting plate (3), a frame (5) disposed perpendicularly from the ends on two facing sides of a light shield (4), a concentrating lens (7) that is disposed corresponding to the upper end of the frame (5) across from the light shield (4) and that concentrates sunlight (Ls) on a light receiving region of the solar cell element (1), and a translucent substrate (6) that fixes (fastens) the concentrating lens (7) and is mounted to the upper end of the frame (5).

Abstract: There is provided a system control method which reduces maximum energy consumption in a tracking-type photovoltaic power generation system having a plurality of tracking-type photovoltaic power generation devices and reduces energy supply capacity. An integrated control part drives driving parts in each of tracking-type photovoltaic power generation devices at predetermined time intervals and drives the driving parts at different times, which can disperse temporally the large energy consumed at the time of activation of the driving parts in the tracking-type photovoltaic power generation devices, thereby reducing the energy supply capacity.

Abstract: A solar cell unit includes a solar cell module, a module frame provided around the solar cell module as supporting the solar cell module for mounting the solar cell unit on an oblique roof, and a drain channel provided along an edge of the module frame outside the module frame.