Abstract: An induction heating device according to the present invention includes: an induction heating coil 10 with a conductor 100 wound around a predetermined axis line AL; a member 11 including at least one soft magnetic material 110, the at least one soft magnetic material 110 being disposed at or on an outer side of each of axial end portions 102 of the induction heating coil 10 in an extending direction of the axis line AL; and a heating object 2 disposed on an inner side of the induction heating coil 10 and the member 11, the heating object 2 being configured to be heatable by induction heating using a magnetic flux from the induction heating coil 10.

Abstract: A display device, includes: a base substrate layer; a thin-film transistor layer provided on the base substrate layer, and including a plurality of subpixels forming a display region, each of the subpixels being provided with a thin-film transistor on which a planarization film is stacked; and a light-emitting element layer provided on the thin-film transistor layer, and including a plurality of first electrodes, a common edge cover, a plurality of light-emitting functional layers, and a common second electrode, all of which are sequentially stacked on top of another in association with the plurality of subpixels, wherein each of the first electrodes has a peripheral edge portion provided to: surround, in plan view, the thin-film transistor corresponding to the first electrode; and protrude toward the base substrate layer.

Abstract: The control system (1000) includes a programmable logic controller (PLC) (40) to control a device, and a program transmission apparatus (10) to transmit a control program (70) for causing the PLC (40) to control the device. The program transmission apparatus (10) includes a first code generator (113) to generate a first code (71) for verification of presence or absence of a change from the control program (70) by using the control program (70) and confidential data (80). The PLC (40) includes a second code generator (433) to generate a second code by using a receiving program as the control program (70) and the confidential data (80) that is shared with the program transmission apparatus (10), and an executor (435) to execute the receiving program when the first code (71) is identical to the second code.

Abstract: A wiring board (3) has first and second rigid sections (11, 12) each having six metal leaf layers, and a flexible section (13) having two metal leaf layers that connect the both rigid sections (11, 12). A capacitor unit (34) and a filter unit 31, which supplies power to an inverter, are mounted on the first rigid section (11), and a CPU (21) and a pre-driver circuit element (22) are mounted on the second rigid section (12). Mutually-independent two control systems are arranged so as to be symmetrical about a board center line (M). Detection signal lines (51) of rotation sensors (37, 38) located at the middle of the first rigid section (11) extend along the board center line (M) on the flexible section (13). Each of the two control systems is configured along a wiring direction of the detection signal lines (51).

Abstract: An electronic control device includes a housing including a first region in which heat dissipation fins are formed on one side and an electronic component generating the largest amount of heat is in thermal contact with the other side, and a second region in which an electronic component is in thermal contact with the one side and the other side.

Abstract: An electronic control device includes: a first board on which a bus bridge and an external communication connector are mounted; a second board on which an accelerator SoC is mounted, the second board being electrically connected to the first board; and a B-to-B connector capable of performing signal transmission between the bus bridge and the accelerator SoC.

Abstract: A wiring board (3) has first and second rigid sections (11, 12) each having six metal leaf layers, and a flexible section (13) having two metal leaf layers that connect the both rigid sections (11, 12). A capacitor unit (34) and a filter unit 31, which supplies power to an inverter, are mounted on the first rigid section (11), and a CPU (21) and a pre-driver circuit element (22) are mounted on the second rigid section (12). Mutually-independent two control systems are arranged so as to be symmetrical about a board center line (M). Detection signal lines (51) of rotation sensors (37, 38) located at the middle of the first rigid section (11) extend along the board center line (M) on the flexible section (13). Each of the two control systems is configured along a wiring direction of the detection signal lines (51).

Abstract: To provide an electronic control device capable of securing electromagnetic compatibility and mechanical strength. An electronic control device includes a base portion formed in a bottomed cylindrical shape; an electronic control board provided in the base portion; and connectors provided on an opening side of the base portion and electrically connected to the electronic control board, in which the base portion includes a first layer formed of a conductive member and a second layer formed of a member different from that of the first layer.

Abstract: A wiring board (3) has first and second rigid sections (11, 12) each having six metal leaf layers, and a flexible section (13) having two metal leaf layers that connect the both rigid sections (11, 12). A capacitor unit (34) and a filter unit 31, which supplies power to an inverter, are mounted on the first rigid section (11), and a CPU (21) and a pre-driver circuit element (22) are mounted on the second rigid section (12). Mutually-independent two control systems are arranged so as to be symmetrical about a board center line (M). Detection signal lines (51) of rotation sensors (37, 38) located at the middle of the first rigid section (11) extend along the board center line (M) on the flexible section (13). Each of the two control systems is configured along a wiring direction of the detection signal lines (51).

Abstract: A circuit board (3) is provided with a first rigid part (11) having a power system electronic component mounted thereon, a second rigid part (12) having a control system electronic component mounted thereon, and a thin flexible part (13) connecting the first and second rigid parts to each other. The flexible part (13) is provided with a plurality of conductive wires (27) conducted with the electronic components of the first and second rigid parts (11, 12). A non-conductive metal pattern (33) that is a dummy pattern is formed along an outer edge (13a) of the flexible part (13). By the non-conductive metal pattern (33), the disconnection of the conductive wires (27) due to cracking is suppressed.

Abstract: A circuit board (3) is provided with a first rigid part (11) having a power system electronic component mounted thereon, a second rigid part (12) having a control system electronic component mounted thereon, and a thin flexible part (13) connecting the first and second rigid parts to each other. The flexible part (13) is provided with a plurality of conductive wires (27) conducted with the electronic components of the first and second rigid parts (11, 12). A non-conductive metal pattern (33) that is a dummy pattern is formed along an outer edge (13a) of the flexible part (13). By the non-conductive metal pattern (33), the disconnection of the conductive wires (27) due to cracking is suppressed.

Abstract: A wiring board (3) has first and second rigid sections (11, 12) each having six metal leaf layers, and a flexible section (13) having two metal leaf layers that connect the both rigid sections (11, 12). A capacitor unit (34) and a filter unit 31, which supplies power to an inverter, are mounted on the first rigid section (11), and a CPU (21) and a pre-driver circuit element (22) are mounted on the second rigid section (12). Mutually-independent two control systems are arranged so as to be symmetrical about a board center line (M). Detection signal lines (51) of rotation sensors (37, 38) located at the middle of the first rigid section (11) extend along the board center line (M) on the flexible section (13). Each of the two control systems is configured along a wiring direction of the detection signal lines (51).

Abstract: A heat-generating component (3) is mounted on a surface (4b), on a case (12) side, of a circuit board (4). A recessed portion (5) is formed in a position facing the heat-generating component (3), on an inner wall surface (12e) side of a bottom wall (12a) of the case (12). Between an inner wall surface (5a) of this recessed portion (5) and the heat-generating component (3), a predetermined-sized component clearance (Ca) is provided, and a heat radiation member (6) is interposed in a position of the component clearance (Ca). A peripheral clearance (Cb) is provided between the surface (4b), on the case (12) side, of the circuit board (4) and the inner wall surface (12e) of the bottom wall (12a) of the case (12) on a peripheral edge side of the recessed portion (5).

Abstract: Disclosed is a seal structure for an electronic control device where a circuit board is accommodated in a housing with a connector attached to the circuit board and held between base and cover members of the housing. The seal structure includes a connector seal surface formed on a front end portion of the base member, a seal material arranged between the connector seal surface and the connector, a seal groove formed in an outer peripheral portion other than the front end portion of the base member, a seal protrusion formed on the cover member and engaged in the seal groove, and a sealant filled between the seal groove and the seal protrusion. Longitudinal end regions of the connector seal surface are extended in a width direction of the connector. Longitudinal end regions of the seal groove are connected perpendicular to the respective end regions of the connector seal surface.

Abstract: Disclosed is a seal structure for an electronic control device where a circuit board is accommodated in a housing with a connector attached to the circuit board and held between base and cover members of the housing. The seal structure includes a connector seal surface formed on a front end portion of the base member, a seal material arranged between the connector seal surface and the connector, a seal groove formed in an outer peripheral portion other than the front end portion of the base member, a seal protrusion formed on the cover member and engaged in the seal groove, and a sealant filled between the seal groove and the seal protrusion. Longitudinal end regions of the connector seal surface are extended in a width direction of the connector. Longitudinal end regions of the seal groove are connected perpendicular to the respective end regions of the connector seal surface.

Abstract: A heat-generating component (3) is mounted on a surface (4b), on a case (12) side, of a circuit board (4). A recessed portion (5) is formed in a position facing the heat-generating component (3), on an inner wall surface (12e) side of a bottom wall (12a) of the case (12). Between an inner wall surface (5a) of this recessed portion (5) and the heat-generating component (3), a predetermined-sized component clearance (Ca) is provided, and a heat radiation member (6) is interposed in a position of the component clearance (Ca). A peripheral clearance (Cb) is provided between the surface (4b), on the case (12) side, of the circuit board (4) and the inner wall surface (12e) of the bottom wall (12a) of the case (12) on a peripheral edge side of the recessed portion (5).

Abstract: An electronic controller for a vehicle includes a circuit board on which an electronic component is mounted and a metal housing accommodating the circuit board therein. The housing includes an inner face and an outer face, at least one of the inner face and the outer face being subjected to surface treatment facilitating heat absorption and dissipation. The inner face of the housing further includes a protruding portion extending to a heating portion of the circuit board so as to be close to the heating portion, or includes concavities and convexities at at least a part thereof opposed to a surface of the circuit board on which the electronic component is mounted so as to increase a surface area of the inner face.

Abstract: An electronic controller for a vehicle includes a circuit board on which an electronic component is mounted and a metal housing accommodating the circuit board therein. The housing includes an inner face and an outer face, at least one of the inner face and the outer face being subjected to surface treatment facilitating heat absorption and dissipation. The inner face of the housing further includes a protruding portion extending to a heating portion of the circuit board so as to be close to the heating portion, or includes concavities and convexities at at least a part thereof opposed to a surface of the circuit board on which the electronic component is mounted so as to increase a surface area of the inner face.

Abstract: According to the protein expression system in which a variety of desired useful proteins are highly produced by fusing a coding region of useful protein gene to the downstream of a promoter region of a tyrosinase-encoding gene (melO) of Aspergillus oryzae by a usual method of DNA manipulation, transferring a plasmid containing the resulting novel fusion gene into Aspergillus oryzae and incubating the thus-obtained transformant, various proteins can efficiently be produced at a high purity and in a high yield.

Abstract: Alcoholic liquors containing carbamide are treated with the urease which has the optimal pH for the activity in an acid region, especially in the region of pH2 to 5. By such treatment, the carbamide can be completely decomposed and removed from the alcoholic liquors in a much smaller amount of urease and in a short time as compared with a conventional treatment according to a urease having the optimal pH in the neutral to alkaline region. This method is more advantageous from the viewpoint of practical use and the quality of the thus obtained alcoholic liquors are superior to that obtained by the conventional treatment.