Abstract:
A power module includes a substrate including an insulating member and a patterned metallization on the insulating member. The patterned metallization is segmented into a plurality of spaced apart metallization regions. Adjacent ones of the metallization regions are separated by a groove which extends through the patterned metallization to the insulating member. A first power transistor circuit includes a first power switch attached to a first one of the metallization regions and a second power switch attached to a second one of the metallization regions adjacent a first side of the first metallization region. A second power transistor circuit includes a third power switch attached to the first metallization region and a fourth power switch attached to a third one of the metallization regions adjacent a second side of the first metallization region which opposes the first side. The second power transistor circuit mirrors the first power transistor circuit.
Abstract:
According to one embodiment of a capacitor module, the capacitor module includes a substrate having a metallization on a first side of the substrate, a plurality of connectors electrically coupled to the metallization and a plurality of capacitors disposed on the metallization. The plurality of capacitors includes a first set of capacitors electrically connected in parallel between a first set of the connectors and a second set of the connectors. The capacitor module further includes a housing enclosing the plurality of capacitors within the capacitor module.
Abstract:
A circuit arrangement includes: a reverse conducting IGBT configured to allow for conducting a load current in a forward direction and in a reverse direction, the IGBT having a load current path and a gate electrode; a gate control unit connected to the gate electrode and configured to activate or deactivate the IGBT by charging or, respectively, discharging the gate electrode in accordance with a gate control signal; a gate driver unit configured to detect whether the IGBT conducts current in the forward direction or the reverse direction by sensing a gate current caused by a change of a voltage drop across the load path due to a changing of the reverse conducting IGBT into its reverse conducting state, the gate control unit further configured to deactivate the IGBT or to prevent an activation of the IGBT via its gate electrode when the gate driver unit detects that the IGBT is in its reverse conducting state.
Abstract:
A power semiconductor module includes a normally on, controllable first power semiconductor switch including at least one first power semiconductor chip, and a normally off, controllable second power semiconductor switch including at least one second power semiconductor chip. The load paths of the first power semiconductor switch and of the second power semiconductor switch are connected in series. The control terminals of all first power semiconductor chips are permanently electrically conductively connected to a conductor track to which no load terminal of any of the first power semiconductor chips is permanently electrically conductively connected, and to which no load terminal and no control terminal of any of the second power semiconductor chips are permanently electrically conductively connected.
Abstract:
One embodiment provides a semiconductor chip including a semiconductor body and a power semiconductor component integrated therein. The power semiconductor component includes a load electrode zone arranged on a first surface of the semiconductor body, a control electrode zone arranged on the first surface, the control electrode zone being electrically insulated from the load electrode zone, and a resistance track arranged on the load electrode zone and the control electrode zone. The resistance track ensures an electrical connection between the load electrode zone and the control electrode zone.
Abstract:
One embodiment provides a circuit arrangement integrated in a semiconductor body. At least one power semiconductor component integrated in the semiconductor body and having a control connection and a load connection is provided. A resistance component is thermally coupled to the power semiconductor component and likewise integrated into the semiconductor body and arranged between the control connection and the load connection of the power semiconductor component. The resistance component has a temperature-dependent resistance characteristic curve. A driving and evaluation unit is designed to evaluate the current through the resistance component or the voltage drop across the resistance component and provides a temperature signal dependent thereon.
Abstract:
One embodiment provides a semiconductor chip including a semiconductor body and a power semiconductor component integrated therein. The power semiconductor component includes a load electrode zone arranged on a first surface of the semiconductor body, a control electrode zone arranged on the first surface, the control electrode zone being electrically insulated from the load electrode zone, and a resistance track arranged on the load electrode zone and the control electrode zone. The resistance track ensures an electrical connection between the load electrode zone and the control electrode zone.
Abstract:
A circuit arrangement includes a reverse conducting transistor having a gate electrode and a load current path between an emitter and collector electrode. The transistor is configured to allow for conducting a load current in a forward direction and in a reverse direction through the load current path and activated or deactivated by a respective signal at the gate electrode. The circuit arrangement further includes a gate control unit and a monitoring unit. The gate control unit is connected to the gate electrode and configured to deactivate the transistor or prevent an activation of the transistor via the gate electrode when the transistor is in a reverse conducting state. The monitoring unit is configured to detect a sudden rise of a collector-emitter voltage of the reverse conducting transistor which occurs, when the load current crosses zero, while the transistor is deactivated or activation is prevented by the gate control unit.
Abstract:
A semiconductor arrangement includes a circuit carrier, a bonding wire and at least N half bridge circuits. N is an integer that amounts to at least 1. The circuit carrier includes a first metallization layer, a second metallization layer, an intermediate metallization layer arranged between the first metallization layer and the second metallization layer, a first insulation layer arranged between the intermediate metallization layer and the second metallization layer, and a second insulation layer arranged between the first metallization layer and the intermediate metallization layer. Each of the half bridge circuits includes a first circuit node, a second circuit node and a third circuit node, a controllable first semiconductor switch and a controllable second semiconductor switch. The controllable first semiconductor switch has a first main contact electrically connected to the first circuit node, a second main contact electrically connected to the third circuit node, and a gate contact for controlling an electric current between the first main contact and the second main contact. Accordingly, the controllable second semiconductor switch has a first main contact electrically connected to the second circuit node, a second main contact electrically connected to the third circuit node, and a gate contact for controlling an electric current between the first main contact and the second main contact. The first semiconductor switch and the second semiconductor switch of each of the half bridge circuits are arranged on that side of the first metallization layer facing away from the second insulation layer. The bonding wire is directly bonded to the intermediate metallization layer at a first bonding location.
Abstract:
A low-inductive power semiconductor assembly is provided in which semiconductor switches are arranged behind one another in a main current path.