Abstract: In a substrate for a stacking-type semiconductor device including a connection terminal provided for a connection with a semiconductor chip to be stacked and an external terminal connected to the connection terminal through a conductor provided in a substrate, connection terminals of a power supply, a ground and the like, which terminals have an identical node, are electrically continuous with each other. Thus, it is possible to facilitate an inspection of electrical continuity between each connection terminal and an external terminal corresponding to each connection terminal by minimum addition of inspecting terminals. Further, it is possible to improve reliability of a stacking-type semiconductor module.

Abstract: In a substrate for a stacking-type semiconductor device including a connection terminal provided for a connection with a semiconductor chip to be stacked and an external terminal connected to the connection terminal through a conductor provided in a substrate, connection terminals of a power supply, a ground and the like, which terminals have an identical node, are electrically continuous with each other. Thus, it is possible to facilitate an inspection of electrical continuity between each connection terminal and an external terminal corresponding to each connection terminal by minimum addition of inspecting terminals. Further, it is possible to improve reliability of a stacking-type semiconductor module.

Abstract: In a substrate for a stacking-type semiconductor device including a connection terminal provided for a connection with a semiconductor chip to be stacked and an external terminal connected to the connection terminal through a conductor provided in a substrate, connection terminals of a power supply, a ground and the like, which terminals have an identical node, are electrically continuous with each other. Thus, it is possible to facilitate an inspection of electrical continuity between each connection terminal and an external terminal corresponding to each connection terminal by minimum addition of inspecting terminals. Further, it is possible to improve reliability of a stacking-type semiconductor module.

Abstract: In a semiconductor device, a semiconductor chip is connected to a board through an interconnection layer. A plurality of first terminals, a plurality of second terminals and a plurality of third terminals are provided on the board, the interconnection layer and the semiconductor chip, respectively. The second terminals are connected to the first terminals through the board. The third terminals are connected to the second terminals. The interconnection layer is rotatable about a rotation axis perpendicular to an upper surface of the interconnection layer. A first terminal having a specific function out of the first terminals and a third terminal having the specific function out of the third terminals are connected to each other by rotating the interconnection layer.

Abstract: A semiconductor device includes a mounting substrate, a plurality of semiconductor chips mounted on the mounting substrate, and a heat-dissipation area formed above the plurality of semiconductor chips. A distance between one of the plurality of semiconductor chips which generates a greatest amount of heat and the heat-dissipation area is smaller than a distance between the other semiconductor chips and the heat-dissipation area.

Abstract: A semiconductor device includes a substrate having a substrate wiring, a semiconductor chip provided on the substrate, a first electrical conductor electrically connecting the semiconductor chip and the substrate wiring, and an electrically conductive pad provided on the substrate. The semiconductor device further includes a wiring member electrically connected to the electrically conductive pad and serving as a wiring path different from the substrate wiring.

Abstract: In a semiconductor device, a semiconductor chip is connected to a board through an interconnection layer. A plurality of first terminals, a plurality of second terminals and a plurality of third terminals are provided on the board, the interconnection layer and the semiconductor chip, respectively. The second terminals are connected to the first terminals through the board. The third terminals are connected to the second terminals. The interconnection layer is rotatable about a rotation axis perpendicular to an upper surface of the interconnection layer. A first terminal having a specific function out of the first terminals and a third terminal having the specific function out of the third terminals are connected to each other by rotating the interconnection layer.

Abstract: An imaging module is formed by stacking: a first resin board; a second resin board having a first opening; a first electrically-conductive member electrically connecting the first resin board and the second resin board to each other; a printed circuit board having a second opening; a second electrically-conductive member electrically connecting the second resin board and the printed circuit board to each other; an imaging semiconductor chip mounted on the lower surface of the second resin board to cover the first opening and provided with an imaging sensor, an optical member placed on the upper surface of the second resin board to cover the first opening; a first semiconductor control chip provided with a control device for controlling operation of the imaging sensor and mounted on the lower surface of the first resin board.

Abstract: In a substrate for a stacking-type semiconductor device including a connection terminal provided for a connection with a semiconductor chip to be stacked and an external terminal connected to the connection terminal through a conductor provided in a substrate, connection terminals of a power supply, a ground and the like, which terminals have an identical node, are electrically continuous with each other. Thus, it is possible to facilitate an inspection of electrical continuity between each connection terminal and an external terminal corresponding to each connection terminal by minimum addition of inspecting terminals. Further, it is possible to improve reliability of a stacking-type semiconductor module.

Abstract: An imaging module is formed by stacking: a first resin board; a second resin board having a first opening; a first electrically-conductive member electrically connecting the first resin board and the second resin board to each other; a printed circuit board having a second opening; a second electrically-conductive member electrically connecting the second resin board and the printed circuit board to each other; an imaging semiconductor chip mounted on the lower surface of the second resin board to cover the first opening and provided with an imaging sensor, an optical member placed on the upper surface of the second resin board to cover the first opening; a first semiconductor control chip provided with a control device for controlling operation of the imaging sensor and mounted on the lower surface of the first resin board.

Abstract: A multi-level semiconductor module according to the present invention is formed by alternately stacking resin boards and sheet members. Each of the resin boards is provided with a semiconductor device. The module includes: a rigid plate provided on one of the sheet members located at the top and having a heat dissipation efficiency higher than those of the resin boards and the sheet members; and a through buried conductor penetrating the resin boards and the sheet members and being in contact with the rigid plate.

Abstract: To provide a nonvolatile memory microcomputer with which a step of testing a microcomputer unit using a logic tester can be omitted, thereby reducing the testing cost. A memory tester supplies test data and expectation data to the nonvolatile memory microcomputer, and the nonvolatile memory microcomputer stores them in a nonvolatile memory. Subsequently, upon receiving an address signal, the nonvolatile memory outputs a test signal and an expectation signal based on test data and expectation data corresponding to the address signal. The test signal is supplied to a circuit block in the microcomputer unit, to drive the circuit block. The circuit block returns a test result signal, which is output to the memory tester together with the expectation signal. The memory tester compares the test result signal and the expectation signal, to judge whether the microcomputer unit operates correctly.

Abstract: To provide a nonvolatile memory microcomputer with which a step of testing a microcomputer unit using a logic tester can be omitted, thereby reducing the testing cost. A memory tester supplies test data and expectation data to the nonvolatile memory microcomputer, and the nonvolatile memory microcomputer stores them in a nonvolatile memory. Subsequently, upon receiving an address signal, the nonvolatile memory outputs a test signal and an expectation signal based on test data and expectation data corresponding to the address signal. The test signal is supplied to a circuit block in the microcomputer unit, to drive the circuit block. The circuit block returns a test result signal, which is output to the memory tester together with the expectation signal. The memory tester compares the test result signal and the expectation signal, to judge whether the microcomputer unit operates correctly.

Abstract: It is an object of the present invention to provide such a weather strip that a noise is prevented from being caused as a window pane is moved up and down in contact with the strip. The weather strip 9 according to the present invention includes a base portion 11, a seal lip 12, and a seal portion 14 having an internal opening 13. The pane contact part 20 of the seal portion 14 is made larger in thickness than the pane non-contact part 21 thereof. The pane contact part 20 is bent at the bent portion 20a thereof. The surface R of the bent portion 20a, with which the window pane 8 comes into contact, is a curved surface nearly unchanged in radius of curvature. The strip 9 has a first groove 22 inside a first bend point 18, and a second groove 23 inside a second bend point 19. The second groove 23 is larger in depth but smaller in width than the first groove 22.