Abstract: According to the present disclosure, a bidirectional switch circuit includes a first semiconductor device including a first backside electrode electrically connected to a first pattern and a first upper surface electrode, a second semiconductor device including a second backside electrode electrically connected to a second pattern and a second upper surface electrode, a first diode including a first cathode electrode electrically connected to the first pattern and a first anode electrode, a second diode including a second cathode electrode electrically connected to the first pattern and a second anode electrode, first wiring electrically connecting the first upper surface electrode and the second anode electrode and second wiring electrically connecting the second upper surface electrode and the first anode electrode, wherein the first upper surface electrode, the second upper surface electrode, the first anode electrode and the second anode electrode are electrically connected to each other.

Abstract: According to the present disclosure, a bidirectional switch circuit includes a first semiconductor device including a first backside electrode electrically connected to a first pattern and a first upper surface electrode, a second semiconductor device including a second backside electrode electrically connected to a second pattern and a second upper surface electrode, a first diode including a first cathode electrode electrically connected to the first pattern and a first anode electrode, a second diode including a second cathode electrode electrically connected to the first pattern and a second anode electrode, first wiring electrically connecting the first upper surface electrode and the second anode electrode and second wiring electrically connecting the second upper surface electrode and the first anode electrode, wherein the first upper surface electrode, the second upper surface electrode, the first anode electrode and the second anode electrode are electrically connected to each other.

Abstract: In a RC-IGBT chip, an anode electrode film and an emitter electrode film are arranged with a distance therebetween. The anode electrode film and the emitter electrode film are electrically connected by a wiring conductor having an external impedance and an external impedance. The external impedance and the external impedance include the resistance of the wiring conductor and the inductance of the wiring conductor.

Abstract: In a RC-IGBT chip, an anode electrode film and an emitter electrode film are arranged with a distance therebetween. The anode electrode film and the emitter electrode film are electrically connected by a wiring conductor having an external impedance and an external impedance. The external impedance and the external impedance include the resistance of the wiring conductor and the inductance of the wiring conductor.

Abstract: A technique disclosed in the specification relates to a semiconductor device capable of minimizing restrictions on wire bonding activities and to a method for producing the semiconductor device. The semiconductor device of the present technique includes: a plurality of semiconductor chips disposed on a circuit pattern within a case defined by an outer frame in a plan view; and bonding wires for electrically connecting the semiconductor chips and the circuit pattern together. The semiconductor chips are arranged along a longer-side direction of the case. The bonding wires are strung along the longer-side direction of the case.

Abstract: According to the present invention, a semiconductor device includes a semiconductor chip, resistance of which changes in accordance with temperature, an external resistor connected in series with the semiconductor chip and a detector configured to detect, while a first voltage is applied between both ends of a series circuit formed by the semiconductor chip and the external resistor, a second voltage applied between both ends of the external resistor, wherein the detector calculates a temperature of the semiconductor chip from the second voltage.

Abstract: According to the present invention, a semiconductor device includes a semiconductor chip, resistance of which changes in accordance with temperature, an external resistor connected in series with the semiconductor chip and a detector configured to detect, while a first voltage is applied between both ends of a series circuit formed by the semiconductor chip and the external resistor, a second voltage applied between both ends of the external resistor, wherein the detector calculates a temperature of the semiconductor chip from the second voltage.

Abstract: A semiconductor device includes: a resin case that houses a semiconductor element; a parallel plate that is disposed inside the resin case while being connected with the semiconductor element, the parallel plate including two flat plates parallel to each other with an insulating material therebetween; two electrodes that are each led out from two electrode lead-out portions in an upper end of the parallel plate and are disposed on an upper surface of the resin case at a predetermined interval; and a metal plate that stands erect on the main surface of the flat plate in a region at the predetermined interval between the two electrode lead-out portions.

Abstract: A semiconductor device includes: a circuit pattern, at least one or more wires joined thereto, an electrode terminal joining thereto, and a semiconductor element. The electrode terminal includes a horizontally extending portion extending along a main surface and connected to the wire, and a bent portion at which an extending direction of the electrode terminal is changed relative to the horizontally extending portion. Each of the wires has joint portions at which each of the wires and the circuit pattern are joined to each other. In a plan view, the joint portions are located on an outside of a portion where each of the wires and the electrode terminal overlap each other.

Abstract: A semiconductor device includes: a circuit pattern, at least one or more wires joined thereto, an electrode terminal joining thereto, and a semiconductor element. The electrode terminal includes a horizontally extending portion extending along a main surface and connected to the wire, and a bent portion at which an extending direction of the electrode terminal is changed relative to the horizontally extending portion. Each of the wires has joint portions at which each of the wires and the circuit pattern are joined to each other. In a plan view, the joint portions are located on an outside of a portion where each of the wires and the electrode terminal overlap each other.

Abstract: A semiconductor device includes a semiconductor element and a ceramic circuit substrate on which the semiconductor element is mounted. The ceramic circuit substrate includes a ceramic substrate having one surface and the other surface facing each other, a metal circuit board joined to the one surface of the ceramic substrate and electrically connected to the semiconductor element, and a metal heat-dissipation plate joined to the other surface of the ceramic substrate. The metal circuit board is greater in thickness than the metal heat-dissipation plate. A surface of the metal heat-dissipation plate on a side opposite to the ceramic substrate is larger in area than a surface of the metal circuit board on a side opposite to the ceramic substrate. Thereby, a semiconductor device capable of suppressing warpage of the ceramic substrate can be achieved.

Abstract: A technique disclosed in the specification relates to a semiconductor device capable of minimizing restrictions on wire bonding activities and to a method for producing the semiconductor device. The semiconductor device of the present technique includes: a plurality of semiconductor chips disposed on a circuit pattern within a case defined by an outer frame in a plan view; and bonding wires for electrically connecting the semiconductor chips and the circuit pattern together. The semiconductor chips are arranged along a longer-side direction of the case. The bonding wires are strung along the longer-side direction of the case.

Abstract: A semiconductor device includes: a resin case that houses a semiconductor element; a parallel plate that is disposed inside the resin case while being connected with the semiconductor element, the parallel plate including two flat plates parallel to each other with an insulating material therebetween; and two electrodes that are each led out from an upper end of the parallel plate and are disposed on an upper surface of the resin case at a predetermined interval. Upper end portions of the two flat plates of the parallel plate between two electrode lead-out portions are bent toward the outside being a direction in which the upper end portions of the two flat plates become more distant from each other, the two electrodes being led out from the corresponding two electrode lead-out portions.

Abstract: A semiconductor device includes: a resin case that houses a semiconductor element; a parallel plate that is disposed inside the resin case while being connected with the semiconductor element, the parallel plate including two flat plates parallel to each other with an insulating material therebetween; two electrodes that are each led out from two electrode lead-out portions in an upper end of the parallel plate and are disposed on an upper surface of the resin case at a predetermined interval; and a metal plate that stands erect on the main surface of the flat plate in a region at the predetermined interval between the two electrode lead-out portions.

Abstract: A semiconductor device includes: a resin case that houses a semiconductor element; a parallel plate that is disposed inside the resin case while being connected with the semiconductor element, the parallel plate including two flat plates parallel to each other with an insulating material therebetween; and two electrodes that are each led out from an upper end of the parallel plate and are disposed on an upper surface of the resin case at a predetermined interval. Upper end portions of the two flat plates of the parallel plate between two electrode lead-out portions are bent toward the outside being a direction in which the upper end portions of the two flat plates become more distant from each other, the two electrodes being led out from the corresponding two electrode lead-out portions.

Abstract: An electrode includes an extending portion extending such that both ends thereof get into a first recessed portion and a second recessed portion provided in a first inner wall and a second inner wall, respectively, facing each other in a lateral direction of a case. The extent to which both the ends of the extending portion get into is set such that positions of both the ends thereof in a case where both the ends are narrowed toward a midpoint therebetween to reduce a length of the extending portion to 70% of the length of the extending portion exist between positions of the first and second inner walls in a case where the first and second inner walls are each narrowed toward a midpoint therebetween by 10% of the distance between the first and second inner walls.

Abstract: A semiconductor device includes a semiconductor element and a ceramic circuit substrate on which the semiconductor element is mounted. The ceramic circuit substrate includes a ceramic substrate having one surface and the other surface facing each other, a metal circuit board joined to the one surface of the ceramic substrate and electrically connected to the semiconductor element, and a metal heat-dissipation plate joined to the other surface of the ceramic substrate. The metal circuit board is greater in thickness than the metal heat-dissipation plate. A surface of the metal heat-dissipation plate on a side opposite to the ceramic substrate is larger in area than a surface of the metal circuit board on a side opposite to the ceramic substrate. Thereby, a semiconductor device capable of suppressing warpage of the ceramic substrate can be achieved.

Abstract: An electrode includes an extending portion extending such that both ends thereof get into a first recessed portion and a second recessed portion provided in a first inner wall and a second inner wall, respectively, facing each other in a lateral direction of a case. The extent to which both the ends of the extending portion get into is set such that positions of both the ends thereof in a case where both the ends are narrowed toward a midpoint therebetween to reduce a length of the extending portion to 70% of the length of the extending portion exist between positions of the first and second inner walls in a case where the first and second inner walls are each narrowed toward a midpoint therebetween by 10% of the distance between the first and second inner walls.

Abstract: A driving circuit of the present invention drives a switching element connected to a main current circuit. The driving circuit includes a driving potion applying on/off-voltage to a gate of the switching element, a common inductor disposed in an interconnection part commonly connected to the driving circuit and a source side of the switching element in a loop formed of the main current circuit and the switching element, and a capacitor connected between the gate side and the source side on the driving portion side with respect to the common inductor.

Abstract: A driving circuit of the present invention drives a switching element connected to a main current circuit. The driving circuit includes a driving potion applying on/off-voltage to a gate of the switching element, a common inductor disposed in an interconnection part commonly connected to the driving circuit and a source side of the switching element in a loop formed of the main current circuit and the switching element, and a capacitor connected between the gate side and the source side on the driving portion side with respect to the common inductor.