Abstract: A switching device and a power semiconductor module are configured with a substrate, a power semiconductor component arranged thereupon and with a load connection device. The substrate incorporates mutually electrically-insulated printed conductors and wherein the load connection device, preferably for an AC potential, comprises at least two partial connection devices, having mutually corresponding contact surfaces and being interconnected in an force-fitted or materially-bonded manner and, on the contact surfaces, an electrically conductive manner, wherein a first partial connection device has a first contact device, which is force-fitted or materially-bonded to the printed conductor of the substrate, and wherein a second partial connection device has a second contact device for the further, preferably external, connection of a load connection device.

Abstract: A control device for a power semiconductor switch, has a first, second and third electrical control device terminal, and a control device that according to a control signal generates an actuation voltage on the third control device terminal and actuates the power semiconductor switch. An overcurrent detection circuit determines a first voltage corresponding to a primary power semiconductor switch voltage present between the first and second control device terminals and, if the first voltage, further to commence the generation of an actuation voltage for a switch-on of the power semiconductor switch, and if the voltage exceeds a reference voltage, to generate an overcurrent detection signal.

Abstract: A power converter arrangement, for feeding a plurality of energy stores of electrically driven vehicles has a transformer having a first multiphase winding and a plurality of second multiphase windings. The first winding is embodied to be connected to a power supply system, in particular to a medium-voltage power supply system, and the second windings are each connected to a first connection of an associated power converter. The invention also presents an installation having such a power converter arrangement, wherein the transformer is arranged in a weatherproof enclosure and at least a plurality of power converters form parts of respective charging stations.

Abstract: A power electronic arrangement has a power converter module, and a first and a second DC voltage terminal element and a first and a second DC voltage connection element, connected to conductor tracks in an electrically conductive manner with the correct polarity. First and second DC voltage terminal element, and the first and second DC voltage connection element, form a stack with an insulation device therebetween. The first DC voltage terminal element has a first recess enclosed in a first main plane, the second DC voltage connection element has a second recess enclosed and aligned with the first in a third main plane, the second DC voltage terminal element and the first DC voltage connection element are in a second main plane between the first and third main plane, and are laterally spaced from each other proximate the recesses.

Abstract: A switching device has a substrate, a connection device and a pressure device, wherein the substrate has electrically insulated conductor tracks, and a power semiconductor component is on one of the conductor tracks with a first main surface and is conductively connected thereto. The connection device is a film composite with conductive film and an insulating film and forms a first and a second main surface. The switching device is connected by the connection device and a contact area of the second main surface of the power semiconductor component is connected to a first contact area of the first main surface of the connection device in a force-locking and electrically conductive manner with a pressure body and a pressure element projecting toward the power semiconductor component.

Abstract: A power semiconductor device has a metal molded body forming a first connecting conductor. From a first main surface of the metal molded body there is a first recess having a first base in which a first power semiconductor component is arranged which faces the first base and is connected in an electrically conductive manner. From a second main surface of the metal molded body, a second recess has a second base, and a second power semiconductor component is arranged with the first contact surface thereof associated with the second base connected in an electrically conductive manner to this base. An insulating material layer is on both main surfaces, filling and completely covering the recess, wherein the first insulating layer has an electrically conductive first via which connects a second contact surface of the first power semiconductor component in an electrically conductive manner to a first conducting surface arranged on the first insulating layer.

Abstract: A centering holding device for a Rogowski coil. The holding device comprises a virtual axis; a first cutout running from a first main side to a second main side thereof through the holding device and is arranged centrally with respect to the axis. The holding device has a channel in the shape of a circle arc around the axis and around the first cutout from a first channel opening to a second channel opening. The first cutout and the channel are coaxial relative to the axis of the holding device. The holding device has a second cutout, which leaves out an edge region of the holding device. The first and second channel openings lead into the second cutout. Furthermore, the invention relates to a method for arranging a Rogowski coil by the holding device.

Abstract: A semiconductor diode includes a semiconductor body, having a first main area formed from an inner area, on which a first contact layer is arranged, and from an edge area, a current path from the first contact layer to a second contact layer arranged on a second main area situated opposite the first main area, wherein the semiconductor diode, by virtue of the configuration of the first contact layer or of the semiconductor body, is formed such that upon current flow, such current flows through a current path having the greatest heating per unit volume, and which proceeds from a further partial area of the inner area, wherein the further partial area is arranged on the other side of a boundary of an inner partial area of the inner area, said inner partial area preferably being arranged centrally, with respect to an outer partial area adjoining said inner partial area.

Abstract: A power converter arrangement comprising: a housing having first and second chambers separated by a separating body; a power semiconductor module; and a device. The capacitor is electrically conductively connected to power semiconductor module by a connecting device. Power semiconductor module, the connecting device and connection elements of the capacitor are arranged in first chamber. The capacitor reaches through the separating body between the first and second chambers into second chamber for cooling of the capacitor. The separating body has a first cutout through which the capacitor reaches. A flat, elastic sealing body which runs peripherally around the first cutout and reaches into the region of the first cutout and surrounds the capacitor there in sealing fashion, is arranged on a surface of the separating body. A pressing body presses the sealing body against the separating body and terminates in sealing fashion there.

Abstract: A power electronics arrangement has a power semiconductor module, with a contact spring, with a load connecting element and with a mounting device which is embodied as part of an electrically operated vehicle. The power semiconductor module has a load connection element which preferably projects outwards from the interior of the power semiconductor module, and preferably has there a first external contact face for external connection, and the load-connecting element has a second contact face. An electrically conductive pressure contact connection is embodied between the first contact face and the second contact face by a contact spring, wherein the pressure on the contact spring which is necessary for this is implemented by connecting the power semiconductor module in a frictionally locking fashion to the mounting device.

Abstract: The invention relates to a power semiconductor device with a substrate with a cooling device and power semiconductor components connected thereon, having load current terminal elements and a cooling device. Pressure devices have a pressure element is arranged movably in a direction normal (N) to the substrate, and an elastic deformation element between the pressure element and a load current terminal element. The pressure element presses the assigned load current terminal element against an electrically conductive contact area of the substrate via the elastic deformation element and provides electrically conductive pressure contacting of the assigned load current terminal element with the substrate. The electrical connection of the power semiconductor device is improved.

Abstract: The apparatus serves for inhomogeneous cooling of a flat object with a first main face and a second main face opposite the first main face. The flat object is cooled by a cooling device from the direction of the first main face. On the second main face, a heating device locally acts upon a first partial face in such a way that the flat object is subjected to heat at said first partial face relative to a second partial face adjoining said first partial face in such a way that said first partial face is cooled more slowly in comparison with the second partial face and, during the cooling process, the second main face of the flat object therefore has an inhomogeneous temperature distribution at least in a partial time period of the cooling.

Abstract: A method for producing a power electronic switching device comprising a substrate, having a power semiconductor component arranged thereon; a connection device, and terminal devices.

Abstract: A switching device has a substrate and a power semiconductor component, comprising a connection device and a pressure device wherein the substrate has tracks electrically insulated from one another. The power semiconductor component is on one of the tracks with a first main surface and is conductively connected thereto. The device is embodied as a film composite having a conductive film and an insulating film that forms a first and a second main surface. The switching device is connected internally in a circuit-conforming manner by the connection device and a contact area of the connection device is connected to a first contact area of one of the tracks in a force-locking and electrically conductive manner. There is a pressure body projecting to the substrate and pressing onto a first section of the second main surface of the film composite.

Abstract: A switching device has a substrate, a connection device and a pressure device, wherein the substrate has electrically insulated conductor tracks, and a power semiconductor component is on one of the conductor tracks with a first main surface and is conductively connected thereto. The connection device is a film composite with conductive film and an insulating film and forms a first and a second main surface. The switching device is connected by the connection device and a contact area of the second main surface of the power semiconductor component is connected to a first contact area of the first main surface of the connection device in a force-locking and electrically conductive manner with a pressure body and a pressure element projecting toward the power semiconductor component.

Abstract: A switching device has a substrate, a power semiconductor component arranged thereon, a connection device and a pressure device. The substrate has conductor tracks electrically insulated from each another. A power semiconductor component is arranged on one of the conductor tracks. The connection device is embodied as a film composite having an electrically conductive film and an electrically insulating film and forming a first and a second main surface. The switching device is connected in a circuit-conforming manner by the connection device, and a contact area of the first main surface of the power semiconductor component is connected to a first contact area of an assigned conductor track of the substrate in a force-locking and electrically conductive manner.

Abstract: The invention relates to a power semiconductor device with a substrate and an electrically conductive DC voltage bus bar system and a capacitor connected to the bus bar system, wherein the power semiconductor device has, for securing the capacitor, a capacitor securing apparatus comprising a receptacle device for receiving the capacitor, in which at least part of the capacitor is arranged. Electrically conductive bus bar system terminal elements are electrically connected thereto and run in the direction of the substrate. An elastic first deformation element is materially bonded to the capacitor securing apparatus and is formed from an elastomer is arranged on the side of the capacitor securing apparatus facing the DC voltage bus bar system.

Abstract: A switching device and a power semiconductor module are configured with a substrate, a power semiconductor component arranged thereupon and with a load connection device. The substrate incorporates mutually electrically-insulated printed conductors and wherein the load connection device, preferably for an AC potential, comprises at least two partial connection devices, having mutually corresponding contact surfaces and being interconnected in an force-fitted or materially-bonded manner and, on the contact surfaces, an electrically conductive manner, wherein a first partial connection device has a first contact device, which is force-fitted or materially-bonded to the printed conductor of the substrate, and wherein a second partial connection device has a second contact device for the further, preferably external, connection of a load connection device.

Abstract: A power electronics arrangement has a power semiconductor module, with a contact spring, with a load connecting element and with a mounting device which is embodied as part of an electrically operated vehicle. The power semiconductor module has a load connection element which preferably projects outwards from the interior of the power semiconductor module, and preferably has there a first external contact face for external connection, and the load-connecting element has a second contact face. An electrically conductive pressure contact connection is embodied between the first contact face and the second contact face by a contact spring, wherein the pressure on the contact spring which is necessary for this is implemented by connecting the power semiconductor module in a frictionally locking fashion to the mounting device.

Abstract: A power semiconductor substrate comprising an insulating planar base, at least one conductor track and at least one contact area as part of the conductor track, wherein a layer of a metallic material is disposed on the contact area by means of pressure sintering. The associated method comprises the steps of: producing a power semiconductor substrate that includes a planar insulating base, conductor tracks and contact areas; arranging a pasty layer, composed of a metallic material and a solvent, on at least one contact area of the power semiconductor substrate; and applying pressure to the pasty layer.