Abstract: A circuit device is constituted by including: a detection circuit configured to include a first A/D conversion circuit that A/D converts a signal output from a sensor element to output a first digital signal and generate a detection signal in accordance with the first digital signal; a pseudo-detection circuit configured to include a second A/D conversion circuit that A/D converts a signal output from the sensor element to output a second digital signal and generate a pseudo-detection signal in accordance with the second digital signal; and a failure detection circuit configured to detect a failure of the detection circuit in accordance with a comparison result produced by comparing a value of the detection signal and a value of the pseudo-detection signal.

Abstract: A battery wiring module includes a plurality of connecting members to be connected to electrode terminals and a flexible printed circuit board having a plurality of voltage detection lines for detecting the voltages of a plurality of power storage elements via the plurality of connecting members, at least one of the plurality of voltage detection lines being constituted to include a front surface wiring and a back surface wiring respectively formed on a front surface and a back surface of the flexible printed circuit board, and a front-back conduction part passing through the flexible printed circuit board in the plate thickness direction and connecting the front surface wiring and the back surface wiring, and the resistance value per unit length of the front-back conduction part being less than or equal to the maximum resistance value per unit length of the front surface wiring and the back surface wiring.

Abstract: A manipulation device has: a manipulation unit on which a movement manipulation is possible; a sensor that outputs a detection value according to the position of the manipulation unit; a conversion unit that converts a detection value acquired by an acquisition unit to information about the position of the manipulation unit, according to conversion information; an adjustment unit that can adjust the movement limit position of the manipulation unit; and a creation unit that acquires, from the sensor, a detection value at the time when the manipulation unit has reached each of a plurality of movement limit positions adjustable by the adjustment unit, and creates the conversion information according to a plurality of acquired detection values and to positional information indicating the actual positions of the plurality of movement limit positions.

Abstract: An operating apparatus includes an operating unit capable of a movement operation, a load application unit configured to apply a load to the movement operation of the operating unit based on predetermined load characteristics, and an adjustment unit configured to adjust the load characteristics based on a moving speed of the operating unit after the operating unit reaches a predetermined position. The load characteristics include a first period in which the load is decreased after the operating unit reaches a predetermined position and a second period in which the load is increased after the first period. The adjustment unit adjusts the load characteristics of the first period based on the moving speed in the first period, wherein, when the moving speed in the first period is less than a predetermined speed, the adjustment unit adjusts the load characteristics of the first period so as to extend the first period.

Abstract: A semiconductor device according to the present embodiment includes a substrate and a semiconductor chip. The substrate has a first face and a plurality of conductive connection parts provided on the first face. The semiconductor chip has a second face that faces the first face and a plurality of connection bumps provided on the second face and electrically connected to the plurality of conductive connection parts. The conductive connection part arranged in a chip outer peripheral region of a chip region on the first face where the semiconductor chip is arranged is different in thickness from the conductive connection part arranged in a chip central region of the chip region.

Abstract: A flexible printed circuit board includes an electrically conductive line, and a land connected to the electrically conductive line and to be connected to a terminal, the land including soldering portions that have metal surfaces and to which the terminal is to be soldered. The terminal includes an overlapping section that overlaps the flexible printed circuit board and a protruding section that protrudes outward from the flexible printed circuit board and is soldered to a connecting member that connects electrode portions of power storage elements.

Abstract: A wiring module 20 includes: a flexible substrate 30 provided with a mounting portion 32, a relay portion 33 that is continuous with the mounting portion 32, and conductive paths 42 and 43 including a connection land 43A disposed on the relay portion 33; a temperature measurement element 50 mounted on the mounting portion 32; a reinforcement member 60 disposed along the mounting portion 32 and the relay portion 33 and fixed to the mounting portion 32; a conductive busbar 70 connected to the electrode terminals 12 and 13; and a conductive relay member 80 that electrically connects the connection land 43A and the busbar 70 to each other, in which the relay member 80 includes a relay base portion 81 connected to the busbar 70, and a plate spring portion 82 that is continuous with the relay base portion 81, overlaps the relay portion 33 and is electrically connected to the connection land 43A, and biases the reinforcement member 60 toward the temperature measurement surface 11F.

Abstract: A flexible printed circuit board including an electronic component includes a flexible printed circuit board, an electronic component, a cover, and a restricting portion. The printed circuit board including an electrically conductive line. The electronic component is mounted on the flexible printed circuit board and joined to the electrically conductive line. The cover covers a joint between the electronic component and the electrically conductive line. The restricting portion is along an outer edge of the cover. The flexible printed circuit board includes a groove along the outer edge of the cover. The groove is defined by opposed groove side surfaces. One of the opposed groove side surfaces farther from the electronic component is defined as the restricting portion.

Abstract: Provided is a terminal-equipped flexible circuit board provided with a flexible circuit board that is flexible and a plurality of terminals. The flexible circuit board extends in a longitudinal direction, the flexible circuit board includes a plurality of conductive paths, the plurality of terminals each include a conductive path connection portion that is connected to a conductive path and a terminal connection portion that extends in an extending direction from the conductive path connection portion and is connected to a partner terminal, the plurality of terminals are arranged on the flexible circuit board in a state in which the longitudinal direction of the flexible circuit board intersects the extending direction of the plurality of terminals, and the plurality of terminals are arranged in a plurality of levels in a state in which the flexible circuit board is folded.

Abstract: A flexible printed circuit board including a terminal includes a flexible printed circuit board that includes an electrically conductive line and the terminal soldered to the flexible printed circuit board. The flexible printed circuit board includes a land and a soldering restricting section. The land is electrically connected to the electrically conductive line and has a metal surface and is soldered to the terminal. The soldering restricting section has a non-metal surface and is not soldered to the terminal. The terminal includes an overlapping section and a protrusion section. The overlapping section overlaps the land and is soldered to the land and includes a removed section that is formed in such a manner that a portion is partially removed in a predefined area. The protruding section is continuous from the overlapping section and protrudes to an area that does not overlap the flexible printed circuit board.

Abstract: A connection module includes a FPC and bus bars connected to the FPC and connecting the electrode terminals of power storage elements that are adjacent to each other. The FPC includes a first wiring portion, a second bus bar mount portion, and a third bus bar mount portion to which the bus bars are connected. The FPC further includes a second expandable/contractable portion and a third expandable/contractable portion. The second expandable/contractable portion is continuous from the second bus bar mount portion and allowed to be expanded and contracted in a direction to be closer to and farther away from the first wiring portion and the third bus bar mount portion. The third expandable/contractable portion is continuous from the third bus bar mount portion and allowed to be expanded and contracted in a direction to be closer to and farther away from the second bus bar mount portion.

Abstract: A flexible printed circuit board includes an electrically conductive line and a land that is connected to the electrically conductive line and to be connected to a terminal. The land includes soldering portions that have metal surfaces and to which the terminal is to be soldered. A dividing section is between the soldering portions and the dividing section has a non-metal surface and defines each of the soldering portions that are adjacent to each other.

Abstract: A connection module includes multiple bus bars for connecting electrode terminals of adjacent power storage elements, and a holding member that holds the multiple bus bars. The holding member includes multiple holding units that respectively hold the multiple bus bars and are arranged side by side in one line, and the holding units include shielding walls. The shielding wall included on one first holding unit is provided in a standing manner along only the short side of the bus bar held in the first holding unit, the short side opposing another adjacent first holding unit or second holding unit.

Abstract: A flexible printed circuit includes a plurality of conductive paths to which connection protruding portions of connection protruding pieces protruding from conductive members to be connected to electrode terminals of power storage elements are to be connected. The flexible printed circuit includes a plurality of inlet openings that are larger in size than the external shapes of the connection protruding portions and into which the connection protruding portions can be inserted with a gap being formed around each protruding portion, and a plurality of entrance openings that are provided corresponding to the inlet openings, have a configuration in which the protruding portions can be moved thereinto from the inlet openings, and extend in the form narrower than the inlet openings. Each of the conductive paths includes a land that is located at an edge portion of the entrance opening and to which the connection protruding portion is to be connected.

Abstract: A connection module includes an FPC and a plurality of bus bars. The plurality of bus bars constitute a first bus bar row disposed along one long side of the FPC, and a second bus bar row disposed along the other long side of the FPC. The FPC includes tolerance absorbing portions each including a slit and a pair of deflection portions disposed with the slit interposed therebetween, and is divided into a plurality of wiring portion by the tolerance absorbing portions. The pair of deflection portions constituting the first tolerance absorbing portion can be deflected in a direction in which the two wiring portions that are adjacent to each other with the first tolerance absorbing portion interposed therebetween move toward and away from each other. The same description also applies to the second tolerance absorbing portion.

Abstract: A protector to be attached to a group of power storage elements that include electrode terminals includes a body portion and cover portions. The body portion includes openings that open in different directions and have opening edges. The cover portions extend from the opening edges of the openings and cover at least portions of the openings. Each of the cover portions includes a base portion, strip portions, and slits. The base portion is connected to the body portion via a hinge portion to be rotatable with respect to the body portion. The strip portions extend from the base portion and are elastically deformable to open a portion of a corresponding one of the openings. The slits are between the strip portions.

Abstract: A sensor unit includes: a conductive path structure; a sensor element; a lower housing including a sensor element accommodation part; a coil spring; and an upper housing. The lower housing includes a support portion, and the upper housing includes a positioning protrusion that protrudes in the shape of a tapered tube toward the lower housing, and is inserted into another end of the coil spring in the axial direction. The lower housing is displaceable toward the positioning protrusion, the coil spring includes an engagement projection that projects to the inner circumferential side thereof so as to be deflectable and deformable. The positioning protrusion has a receiving recess, and the engagement projection is received and locked in the receiving recess, so that the coil spring is held by the upper housing.

Abstract: A coupling structure in a wiring board including a printed wiring board and a flexible printed wiring board overlaid on the printed wiring board. The printed wiring board includes a first conductive line on a surface adjacent to the flexible printed wiring board. The flexible printed wiring board includes a second conductive line on a surface on an opposite side from the printed wiring board. The flexible printed wiring board includes a conduction-purpose through hole adjacent to the second conductive line and in which a section of the first conductive line is disposed. The first conductive line of the printed wiring board and the second conductive line of the flexible wiring board are electrically connected to each other with a conductive member disposed in the conduction-purpose through hole. The conductive member is covered with a resin having an insulating property.

Abstract: A wiring module includes a flexible substrate, a sensor component (temperature sensor), a connecting member (bus bar), and a holding part-equipped relay member, wherein the holding part-equipped relay member includes: a relay member main body including a base part (first main plate) that is to be fixed to the flexible substrate and the bus bar, and a holding part (first holding piece) that is continuous with the first main plate; a pedestal part (housing) that is to be held by the first holding piece so as to be displaceable in a direction toward or away from the first main plate, and that is to be fixed to a position of the flexible substrate where the temperature sensor is mounted; and a biasing member that has elastic force, that has one end held by the first main plate, and that biases the housing in the direction away from the first main plate.

Abstract: An energy storage module includes a plurality of cells, a first end plate, a second end plate, and a busbar module. The busbar module includes a plurality of busbars and a busbar case that holds the busbars. The busbar case includes a first end case, a second end case, and a connection portion. The first end case engages with the first end plate. The second end case is located to be separate from the first end case in the first direction, and engages with the second end plate. The connection portion connects the first end case and the second end case to each other. The connection portion includes a first expandable portion that is expandable in the first direction.