Abstract: A power semiconductor module includes a power semiconductor die arranged on a power substrate, a housing enclosing the power semiconductor die and the power substrate, wherein an interior volume formed by the housing is divided by interior walls into at least a first compartment and a second compartment, wherein the power semiconductor die is arranged within the first compartment, a first encapsulation material encapsulating the power semiconductor die and at least partially filling the first compartment, and a second encapsulation material different from the first encapsulation material, the second encapsulation material encapsulating the first encapsulation material and at least partially filling the second compartment, wherein the first encapsulation material is arranged within the first compartment but not within the second compartment.

Abstract: A power semiconductor module arrangement includes a housing, a substrate arranged inside the housing, a printed circuit board arranged inside the housing distant from and in parallel to the substrate, an encapsulant at least partly filling the interior of the housing and covering the substrate and the printed circuit board, and a heat protective layer arranged inside the housing between the substrate and the printed circuit board, and extending in a plane that is parallel to the substrate and the printed circuit board. A thermal resistance of the heat protective layer is greater than a thermal resistance of the encapsulant.

Abstract: A printed circuit board including a dielectric insulation layer having a top side facing a first side and a bottom side opposite the first side that faces a second side of the dielectric insulation layer, at least one conducting track formed on the dielectric insulation layer, and one or more conductor rails, wherein each of the one or more conductor rails is mechanically coupled to the dielectric insulation layer, and a first portion of each of the one or more conductor rails is arranged on the first side and a second portion of each of the one or more conductor rails is arranged on the second side of the dielectric insulation layer.

Abstract: A power semiconductor module arrangement includes at least one substrate comprising a dielectric insulation layer and a first metallization layer attached to the dielectric insulation layer; at least one semiconductor body arranged on the first metallization layer; a housing at least partly enclosing the substrate, the housing comprising sidewalls; and at least one press-on pin, wherein each press-on pin is arranged either on the substrate or on one of the at least one semiconductor body and extends from the substrate or the respective semiconductor body in a vertical direction that is perpendicular to a top surface of the substrate, and each press-on pin is mechanically coupled to at least one sidewall of the housing by means of a bar, each bar extending horizontally between the respective press-on pin and sidewall, and parallel to the top surface of the substrate.

Abstract: A method includes placing a substrate on a first curved surface of a first bending tool, using a second bending tool with a second surface to apply pressure to the substrate, thereby pressing the substrate onto the first curved surface and bending the substrate, and removing the bended substrate from the first bending tool.

Abstract: A method includes placing a substrate on a first curved surface of a first bending tool, using a second bending tool with a second surface to apply pressure to the substrate, thereby pressing the substrate onto the first curved surface and bending the substrate, and removing the bended substrate from the first bending tool.

Abstract: A method includes placing a semiconductor substrate on a first curved surface of a first bending tool, using a second bending tool with a second surface to apply pressure to the semiconductor substrate, thereby pressing the semiconductor substrate onto the first curved surface and bending the semiconductor substrate, and removing the bended semiconductor substrate from the first bending tool.

Abstract: A method includes placing a semiconductor substrate on a first curved surface of a first bending tool, using a second bending tool with a second surface to apply pressure to the semiconductor substrate, thereby pressing the semiconductor substrate onto the first curved surface and bending the semiconductor substrate, and removing the bended semiconductor substrate from the first bending tool.

Abstract: In order to produce a power semiconductor module, a circuit carrier is populated with a semiconductor chip and with an electrically conductive contact element. After populating, the semiconductor chip and the contact element are embedded into a dielectric embedding compound, and the contact element is exposed. In addition, an electrically conductive base layer is produced which electrically contacts the exposed contact element and which bears on the embedding compound and the exposed contact element. A prefabricated metal film is applied to the base layer by means of an electrically conductive connection layer.

Abstract: In order to produce a power semiconductor module, a circuit carrier is populated with a semiconductor chip and with an electrically conductive contact element. After populating, the semiconductor chip and the contact element are embedded into a dielectric embedding compound, and the contact element is exposed. In addition, an electrically conductive base layer is produced which electrically contacts the exposed contact element and which bears on the embedding compound and the exposed contact element. A prefabricated metal film is applied to the base layer by means of an electrically conductive connection layer.

Abstract: A semiconductor module has a carrier, a semiconductor chip mounted on the carrier, a bond wire, a module housing, and a first sound absorber. The module housing has a housing side wall. The bond wire is arranged in the module housing. At least a section of the first sound absorber is arranged between the semiconductor chip and the housing side wall.

Abstract: A semiconductor module has a carrier, a semiconductor chip mounted on the carrier, a bond wire, a module housing, and a first sound absorber. The module housing has a housing side wall. The bond wire is arranged in the module housing. At least a section of the first sound absorber is arranged between the semiconductor chip and the housing side wall.

Abstract: A semiconductor module includes an electrically conductive lower contact piece and an electrically conductive upper contact piece spaced apart from one another in a vertical direction. The module further includes a semiconductor chip having a first load connection and a second load connection. The semiconductor chip is electrically conductively connected by the second load connection to the lower contact piece, and electrically conductively connected to the upper contact piece by at least one bonding wire bonded to the first load connection. An explosion protection means is arranged between the first load connection and the upper contact piece and into which each of the bonding wires is embedded over at least 80% or over at least 90% of its length.

Abstract: A semiconductor module includes an electrically conductive lower contact piece and an electrically conductive upper contact piece spaced apart from one another in a vertical direction. The module further includes a semiconductor chip having a first load connection and a second load connection. The semiconductor chip is electrically conductively connected by the second load connection to the lower contact piece, and electrically conductively connected to the upper contact piece by at least one bonding wire bonded to the first load connection. An explosion protection means is arranged between the first load connection and the upper contact piece and into which each of the bonding wires is embedded over at least 80% or over at least 90% of its length.