Semikron Elektronik Gmbh &co.kg

Semikron Danfoss Elektronik Gmbh & Co., Kg

Alexander Wehner

Ingo Bogen

Jürgen Steger

Manuel Noderer

Peter Beckedahl

Harald Kobolla

Sandro Bulovic

Roland Bittner

Johannes Klier

Juergen Steger

Peter Lemke

Markus Beck

Markus Müller

Michael Schatz

Thomas Götze

Christian Zeiler

Bernd Fischer

Markus Düsel

A power semiconductor module includes a substrate, having power semiconductor components, further including a housing element, and having a DC voltage connection device having a flat lead connection device and a second flat lead connection element, wherein the flat lead connection device has a first flat lead connection element encased by a plastic element of the flat lead connection device and materially bonded to the plastic element, wherein a connection section of the first flat lead connection element projects from the plastic element, a connection section of the second flat lead connection element is arranged on the plastic element or is at least partly enclosed by the plastic element and bonded to the plastic element so that a section of the plastic element is between the first flat lead connection element and the connection section of the second flat lead connection element.

Power semiconductor module and method for producing a power semiconductor module

A power semiconductor arrangement has a switching facility, a housing, having a load connection facility for connecting in an electrically conductive manner to an external supply line and having a first plug-in connecting facility for plug-in connecting to an external second plug-in connecting facility. The housing has a first opening through which a connecting facility for connecting the load connection facility and the associated external supply line is accessible. A cover facility for covering the first opening is on the housing so as to be mechanically movable from a first end position into a second end position and has a first locking facility which cooperates with the external second plug-in connecting facility, whereby the first opening is closed with the cover facility as long as it is in its first end position, as long as the external second plug-in connecting facility is inserted into the first plug-in connecting facility.

Power semiconductor arrangement having a cover facility and method for releasing it

A pressing device for indirectly or directly applying pressure to power-semiconductor components of a power-semiconductor module, having a pressing plate, having a pressing nub element which is formed from an elastic material and which has a pressing nub plate and pressing nubs projecting therefrom, and having a receiving device for receiving the pressing nub element, which receiving device has a base plate provided with recesses, wherein the recesses run through the base plate, wherein the pressing nub plate is arranged on the base plate and the pressing nubs run through the recesses and, on the main side of the base plate facing away from the pressing nub plate, project beyond this main side of the base plate, and wherein the pressing nub plate is arranged between the pressing plate and the base plate.

Pressing device for directly or indirectly applying pressure to power-semiconductor components of a power-semiconductor module

A power semiconductor module has a substrate, with power semiconductor components, and a DC voltage connecting device, which has a first and a second flat conductor connecting element and at least one first metal layer connecting element and at least one second metal layer connecting element, wherein the second flat conductor connecting element is arranged spaced apart in the normal direction of the first flat conductor connecting element from the first flat conductor connecting element, the first flat conductor connecting element is electrically connected by the first metal layer connecting element and the second flat conductor connecting element is electrically connected by the second metal layer connecting element to the metal layer, the first flat conductor connecting element has a flat conductor end section and a flat conductor connection section arranged between the one first metal layer connecting element and the flat conductor end section.

Power semiconductor module having a DC voltage connecting device

A production method and a power electronic connecting device for a power semiconductor module, wherein the connecting device is designed as a flexible film stack of a first and a second electrically conductive film and an electrically insulating film arranged therebetween, wherein at least one of the electrically conductive films is structured in itself and thus forms a plurality of film conductor tracks, wherein a first one of these film conductor tracks has, in a first section, a first average thickness and, in a second section, a second average thickness which is at least 10%, preferably at least 20%, smaller than the first average thickness.

Power electronic switching device, power semiconductor module therewith and method for production

A power electronics submodule for mounting on a cooling device, has first and second surface sections next to one another, a substrate with a housing and includes a connection element, conductively connected by a contact to a track of the substrate and a connection section, arranged parallel to the substrate, the substrate arranged on the first surface section, the housing has a housing section, with a first main surface, arranged on the second surface section, and a second main surface, situated opposite the first main surface. In a non-mounted state a first main surface of the connection section is a first distance from the second main surface of the housing section in the housing region of a fastening device.

Power electronics submodule for mounting on a cooling device

A power semiconductor module has a substrate, load and auxiliary connector elements, and a plastic body, which preferably is a housing or a housing frame and which has a channel. The channel being for the arrangement of a compensating portion of a press-fit contact element. The press-fit contact element has a press-fit portion, a compensating portion and a foot portion, the compensating portion being elastic in a longitudinal direction of the press-fit contact element and having at least two O-shaped sub-portions arranged in succession in the longitudinal direction and having a constriction arranged between two sub-portions.

Power semiconductor module with press-fit contact element

The invention provides a pressure sintering method including: a) providing a sintered component arrangement with a workpiece carrier having recesses, with a substrate resting on a main surface of the workpiece carrier, wherein a sintering material to be sintered is arranged between the power semiconductor components and the substrate, a first power semiconductor component and a first region of the substrate arranged above the workpiece carrier in the normal direction of the first main side of the insulation layer flush with a first recess of the workpiece carrier, and a second power semiconductor component and a second region of the substrate are arranged above the workpiece carrier in the normal direction of the first main side of the insulation layer flush with a second recess of the workpiece carrier and a step of b) pressurizing the power semiconductor components and applying a temperature treatment.

Pressure sintering procedure in which power semiconductor components with a substrate are connected to each other via a sintered connection

A submodule and an assembly include a switching device having a substrate, and printed conductors arranged thereupon. The submodule incorporates a first and a second DC voltage printed conductor, to which a first and a second DC voltage terminal element are connected in an electrically conductive manner, and an AC voltage printed conductor, to which an AC voltage terminal element is connected in an electrically conductive manner. The submodule further comprises an insulating moulding, which encloses the switching device in a frame-type arrangement. The first DC voltage terminal element, by means of a first contact section, engages with a first supporting body of the insulating moulding, and the AC voltage terminal element, by means of a second contact section, engages with a second supporting body of the insulating moulding. To this end, a first clamping device is configured to project through a first recess in the first supporting body, in an electrically insulating manner, and to form an electrically-conductive clamping connection between the first DC voltage terminal element and an associated first DC voltage connecting element, and a second clamping device is configured to project through a second recess in the second supporting body, in an electrically insulating manner, and to form an electrically-conductive clamping connection between the AC voltage terminal element and an associated AC voltage connecting element.

Power electronics submodule having DC and AC voltage terminal elements, and assembly hereof

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. A clamping device is electrically isolated through the first and second recess and forms an electrically conducting clamped connection between the first DC terminal element and the first DC connection element, and between the second DC terminal element and the second DC connection element.

Growing community of inventors

Nuremberg, Germany

Alexander Wehner