Abstract: A module comprises a metallic terminal pins for connection and a circuit board with electronic components mounted thereon, a circuit board connecting side of the connector. The electronic components and the circuit board with the electronic components mounted thereon are encapsulated with the same resin. A metallic base is united to the module to obtain an electric conduction between the metallic base and the circuit board.

Abstract: In an electronic device having an interposer substrate as an MCM structure, heat dissipation properties are enhanced while the reliability of joint between the interposer substrate and a motherboard is maintained. In the invention, a metal core base material of great heat capacity and high thermal conductivity is used for both the interposer substrate and the motherboard. Furthermore, a part where a core metal is exposed is provided on at least one of the interposer substrate and the motherboard. A solder joint pad is directly formed on the core metal exposed part, and the interposer substrate is solder-joined to the motherboard.

Abstract: A device for controlling a vehicle 8 comprising a housing 3, a rectangular printed circuit board 4 which is fixed to the inside of the housing and has a control circuit thereon, and plugs 1a and 1b provided along one side of the rectangular printed circuit board 4 to transfer signals between the inside and the outside of said housing 3; wherein the plugs 1a and 1b respectively contain plug pins and the plug pins 2 are electrically connected to the printed circuit board 4 via bonding wires 5 inside the housing 3.

Abstract: An electronic device comprises a circuit board which has a through hole and uses a resin with a glass transition temperature exceeding 150° C. as a base member, a metal casing which has an opening, and a connector which is fitted to the opening of the metal casing in which a pin of the connector is inserted into the through hole, the pin and the through hole are connected with a conductive member, and a reinforcement member for securing the connector and the board is further provided on the conductive member, thereby improving the reliability of the electronic device.

Abstract: A module comprises a metallic terminal pins for connection and a circuit board with electronic components mounted thereon, a circuit board connecting side of the connector. The electronic components and the circuit board with the electronic components mounted thereon are encapsulated with the same resin. A metallic base is united to the module to obtain an electric conduction between the metallic base and the circuit board.

Abstract: A device for controlling a vehicle 8 comprising a housing 3, a rectangular printed circuit board 4 which is fixed to the inside of the housing and has a control circuit thereon, and plugs 1a and 1b provided along one side of the rectangular printed circuit board 4 to transfer signals between the inside and the outside of said housing 3; wherein the plugs 1a and 1b respectively contain plug pins and the plug pins 2 are electrically connected to the printed circuit board 4 via bonding wires 5 inside the housing 3.

Abstract: A module comprises a metallic terminal pins for connection and a circuit board with electronic components mounted thereon, a circuit board connecting side of the connector. The electronic components and the circuit board with the electronic components mounted thereon are encapsulated with the same resin. A metallic base is united to the module to obtain an electric conduction between the metallic base and the circuit board.

Abstract: A device for controlling a vehicle 8 has a housing, a rectangular printed circuit board inside of the housing and a control circuit thereon. Plugs are provided along one side of the rectangular printed circuit board to transfer signals between the inside and the outside of the housing. The plugs have plug pins that are electrically connected to the printed circuit board within the housing.

Abstract: Semiconductor devices,-semiconductor wafers, and semiconductor modules are provided: wherein the semiconductor device has a small warp; damages at chip edge and cracks in a dropping test are scarcely generated; and the semiconductor device is superior in mounting reliability and mass producibility. The semiconductor device 17 comprising: a semiconductor chip 64; a porous stress relaxing layer 3 provided on the plane, whereon circuits and electrodes are formed, of the semiconductor chip; a circuit layer 2 provided on the stress relaxing layer and connected to the electrodes; and external terminals 10 provided on the circuit layer; wherein an organic protecting film 7 is formed on the plane, opposite to the stress relaxing layer, of the semiconductor chip, and respective side planes of the stress relaxing layer, the semiconductor chip 6, and the protecting film 7 are exposed outside on a same plane.

Abstract: A semiconductor device having a superior connection reliability is obtained by providing a buffer body for absorbing the difference of thermal expansion between the mounting substrate and the semiconductor element in a semiconductor package structure, even if an organic material is used for the mounting substrate. A film material is used as the body for buffering the thermal stress generated by the difference in thermal expansion between the mounting substrate and the semiconductor element. The film material has modulus of elasticity of at least 1 MPa in the reflow temperature range (200–250° C.).

Abstract: In an electronic device having an interposer substrate as an MCM structure, heat dissipation properties are enhanced while the reliability of joint between the interposer substrate and a mother board is maintained. In the invention, a metal core base material of great heat capacity and high thermal conductivity is used for both the interposer substrate and the motherboard. Furthermore, a part where a core metal is exposed is provided on at least one of the interposer substrate and the motherboard. A solder joint pad is directly formed on the core metal exposed part, and the interposer substrate is solder-joined to the motherboard.

Abstract: A device for controlling a vehicle 8 comprising a housing 3, a rectangular printed circuit board 4 which is fixed to the inside of the housing and has a control circuit thereon, and plugs 1a and 1b provided along one side of the rectangular printed circuit board 4 to transfer signals between the inside and the outside of said housing 3; wherein the plugs 1a and 1b respectively contain plug pins and the plug pins 2 are electrically connected to the printed circuit board 4 via bonding wires 5 inside the housing 3.

Abstract: A semiconductor device includes a semiconductor chip formed with connection terminals, an elastic structure interposed between a main surface of the chip and a wiring substrate formed with wirings connected at first ends thereof to the connection terminals, and bump electrodes connected to the other ends of the wirings. The connection terminals may be at a center part or in peripheral part(s) of the chip main surface and both the elastic structure and wiring substrate are not provided at locations of connection terminals. A resin body seals at least the connection terminals and the exposed first ends of wirings (leads). In a scheme in which the connection terminals are located in a peripheral part of the chip main surface, the wiring substrate protrudes beyond the chip boundary where the connection terminals are arranged, and the resin body shape is restricted by the protruding part of the wiring substrate.

Abstract: In a semiconductor device having a three-layered buffer layer comprising core layer 1 having interconnected foams such as a three-dimensional reticular structure and adhesive layers 2 provided on both sides of the core layer as a stress buffer layer between semiconductor chip 5 and wiring 4 to lessen a thermal stress generated between the semiconductor device and the package substrate, where a thickness ratio of the core layer 1 to total buffer layer is at least 0.2, the production process can be simplified by using such a buffer layer, thereby improving the mass production capacity and enhancing the package reliability.

Abstract: A module comprises a metallic terminal pins for connection and a circuit board with electronic components mounted thereon, a circuit board connecting side of the connector. The electronic components and the circuit board with the electronic components mounted thereon are encapsulated with the same resin. A metallic base is united to the module to obtain an electric conduction between the metallic base and the circuit board.

Abstract: An electronic device comprises a circuit board which has a through hole and uses a resin with a glass transition temperature exceeding 150° C. as a base member, a metal casing which has an opening, and a connector which is fitted to the opening of the metal casing in which a pin of the connector is inserted into the through hole, the pin and the through hole are connected with a conductive member, and a reinforcement member for securing the connector and the board is further provided on the conductive member, thereby improving the reliability of the electronic device.

Abstract: A device for controlling a vehicle 8 having a housing 3, a rectangular printed circuit board 4 which is fixed to the inside of the housing and has a control circuit thereon. Plugs 1a and 1b are provided along one side of the rectangular printed circuit board 4 to transfer signals between the inside and the outside of the housing 3. The plugs 1a and 1b respectively contain plug pins and the plug pins 2 are electrically connected to the printed circuit board 4 via bonding wires 5 inside the housing 3.

Abstract: A semiconductor device includes a semiconductor chip formed with connection terminals, an elastic structure interposed between a main surface of the chip and a wiring substrate formed with wirings connected at first ends thereof to the connection terminals, and bump electrodes connected to the other ends of the wirings. The connection terminals may be at a center part or in peripheral part(s) of the chip main surface and both the elastic structure and wiring substrate are not provided at locations of connection terminals. A resin body seals at least the connection terminals and the exposed first ends of wirings (leads). In a scheme in which the connection terminals are located in a peripheral part of the chip main surface, the wiring substrate protrudes beyond the chip boundary where the connection terminals are arranged, and the resin body shape is restricted by the protruding part of the wiring substrate.

Abstract: A semiconductor device includes a semiconductor chip formed with connection terminals, an elastic structure interposed between a main surface of the chip and a wiring substrate formed with wirings connected at first ends thereof to the connection terminals, and bump electrodes connected to the other ends of the wirings. The connection terminals may be at a center part or in peripheral part(s) of the chip main surface and both the elastic structure and wiring substrate are not provided at locations of connection terminals. A resin body seals at least the connection terminals and the exposed first ends of wirings (leads). In a scheme in which the connection terminals are located in a peripheral part of the chip main surface, the wiring substrate protrudes beyond the chip boundary where the connection terminals are arranged, and the resin body shape is restricted by the protruding part of the wiring substrate.

Abstract: In a multi chip module of a structure wherein a plurality of bare or packaged semiconductor chips are mounted on a single wiring board and upper surfaces of the semiconductor chips are covered with a single heat spread plate, the whole space around the semiconductor chips thus sandwiched between the wiring board and the heat spread plate is filled with resin. By so doing, the semiconductor chips are interconnected through the resin, so that even if a stress is exerted on any of the chips, it is dispersed and therefore it is possible to diminish the occurrence of cracks in the chips and the heat spread plate caused by stress concentration. Besides, since the semiconductor chips and the heat spread plate are bonded together with resin, even if there are variations in size of the chips, both can be bonded easily. Further, the bonding of all the chips and the heat spread plate can be done in a single process.