Abstract: Various embodiments of the teachings herein include an apparatus comprising: a component; a cooling element; and a connecting element arranged between the component and the cooling element to thermally couple the cooling element to the component. The connecting element comprises a porous connecting body including a metal material. Pores of the connecting body are at least in part filled with a filling material including a low-melting alloy or a fluorinated organic liquid.

Abstract: Various embodiments of the teachings herein include a method for joining and insulating a power electronic semiconductor component with contact surfaces to a substrate. In some embodiments, the method includes: preparing the substrate with a metallization defining an installation slot having joining material, wherein the substrate comprises an organic or a ceramic wiring support; arranging an electrically insulating film and the semiconductor component on the substrate, such that the contact surfaces of the semiconductor component facing the substrate are omitted from the film and regions of the semiconductor component exposed by the contact surfaces are insulated at least in part by the film from the substrate and from the contact surfaces; and joining the semiconductor component to the substrate and electrically insulating the semiconductor component at least in part by the film in one step.

Abstract: A tolerance compensation element is for circuit configurations having a DCB (direct copper bonded) substrate and a PCB (printed circuit board). A circuit configuration further includes the tolerance compensation element. A tolerance compensation element is positioned in a targeted manner between the DCB substrate and PCB in a gap A for the contact-connection of components on the DCB substrate via additive manufacturing and is formed so as to close the gap.

Abstract: The invention relates to a circuit arrangement, comprising at least one wiring carrier plate (1), characterized by at least one separating element (2) formed in the wiring carrier plate (1), which separating element divides the wiring carrier plate (1) into sections separated by the separating element (2), wherein the transfer of vibrations from one section to another section is at least partially decoupled and/or damped by the separating element (2). The invention further relates to a converter having such a circuit arrangement, and to an aircraft having a converter. The converter can comprise capacitor stacks (3) arranged on the wiring carrier plate (1), and power semiconductors (6).

Abstract: Various embodiments of the teachings herein include a semifinished product for use in the populating of a power electronics component by a connecting method. The product includes an electrically insulating prepreg frame electrically insulated. The prepreg frame is configured for surrounding an applied connecting material at a metallized installation site during the population. A material of the prepreg frame enables simultaneous processability of electrical connection and electrical insulation by compression of the insulation material in the form of the semifinished product since the processing parameters of the electrical connecting material and the semifinished product are compatible.

Abstract: Various embodiments include a method for installing an electronic assembly having a die and a substrate with a reference plane. The method may include: providing a product carrier having recesses with varying dimensions different from one another; and arranging planar molded parts, joining materials, and the die on the product carrier. The die is in electrical contact with at least one planar molded part and at least one joining material. The method further includes forming functional elements from the planar molded parts and/or the die and the joining materials, the functional elements supporting the substrate and electrically contacting the reference plane.

Abstract: A method for mounting an electrical component on a substrate is disclosed. According to the method, joining is simplified using a cover, or hood, that includes a contact structure on an inner side of the hood, wherein when the hood is mounted, the contact structure is joined to the underlying structure at different joining levels simultaneously using an additional material. Moreover, a joining pressure, e.g., for diffusion or sintered bonds for electrical contacts, can be applied using such a hood.

Abstract: Various embodiments include a power module comprising: a first power electronics device arranged on a first substrate board; and a second power electronics device mounted on a second substrate board. The first substrate board, the first device, the second substrate board, and the second device are arranged on a first baseplate stacked above one another or in planar fashion beside one another.

Abstract: Various embodiments include a capacitor structure comprising: a plurality of capacitors disposed in a support structure, wherein each of the plurality of capacitors includes a first capacitor electrode and a second capacitor electrode. The support structure includes a first electrode and a second electrode. Each of the plurality of capacitors makes electrical contact with the first electrode via the respective first capacitor electrode and with the second electrode via the respective second capacitor electrode. The support structure includes a mounting side for surface mounting, the mounting side comprising a first contact area of the first electrode and a second contact area of the second electrode. The support structure defines a cuboid interior and the capacitors are disposed in the cuboid interior. An outer side of the support structure defines an additional structural framework outside the mounting side.

Abstract: Various embodiments include a semiconductor component comprising: a first carrier part; a second carrier part arranged opposite the first carrier part; a semiconductor element arranged between the first carrier part and the second carrier part; a contact surface arranged on one of the parts; a contact sleeve arranged on one of the carrier parts opposite the contact surface; and a contact pin with, at one axial end, an end face providing an electrical contact connection of the contact surface and, in a region averted from said axial end, a connection region for the connection of the contact pin with the contact sleeve by means of press fitting. At least one of the first carrier part or the second carrier part comprises a printed conductor connected to the contact surface and/or to the contact sleeve.

Abstract: Various embodiments include a solder preform for establishing a diffusion solder connection comprising: a microstructure including a solder material and a metallic material; a first joining surface for a first joining partner and a second joining surface for a second joining partner; and a diffusion zone comprising an intermetallic compound of at least some of the solder material and at least some of the metallic material. The first joining surface and the second joining surface include at least some solder material.

Abstract: Various embodiments of the teachings herein include power electronic circuits comprising: interconnected power modules, each with a power electronic element and a plurality of capacitors in parallel. The power electronic elements are mounted on a first side of substrate plates. The capacitors are mounted in a plurality of planes one above the other on a second side of the substrate plates. The substrate plates, with the power electronic elements forward and alongside each other, are fixed onto an assembly side of a base circuit carrier.

Abstract: Various embodiments include an electrical assembly with: an electronic switching element electrically contacted on an underside and arranged on a flexible first wiring support; wherein the electronic switching element is electrically contacted on an upper side lying opposite the lower side; and a second wiring support arranged lying opposite the first wiring support on the upper side electrical contacting area of the electronic switching element. The first wiring support and the second wiring support each comprise a permanently elastic, electrically insulating, thermally conductive material.

Abstract: Various embodiments of the teachings herein include power electronic circuits comprising: interconnected power modules, each with a power electronic element and a plurality of capacitors in parallel. The power electronic elements are mounted on a first side of substrate plates. The capacitors are mounted in a plurality of planes one above the other on a second side of the substrate plates. The substrate plates, with the power electronic elements forward and alongside each other, are fixed onto an assembly side of a base circuit carrier.

Abstract: The invention relates to a circuit arrangement, comprising at least one wiring carrier plate (1), characterized by at least one separating element (2) formed in the wiring carrier plate (1), which separating element divides the wiring carrier plate (1) into sections separated by the separating element (2), wherein the transfer of vibrations from one section to another section is at least partially decoupled and/or damped by the separating element (2). The invention further relates to a converter having such a circuit arrangement, and to an aircraft having a converter. The converter can comprise capacitor stacks (3) arranged on the wiring carrier plate (1), and power semiconductors (6).

Abstract: Various embodiments include a power module comprising: a first power electronics device arranged on a first substrate board; and a second power electronics device mounted on a second substrate board. The first substrate board, the first device, the second substrate board, and the second device are arranged on a first baseplate stacked above one another or in planar fashion beside one another.

Abstract: Various embodiments include a capacitor structure comprising: a plurality of capacitors disposed in a support structure, wherein each of the plurality of capacitors includes a first capacitor electrode and a second capacitor electrode. The support structure includes a first electrode and a second electrode. Each of the plurality of capacitors makes electrical contact with the first electrode via the respective first capacitor electrode and with the second electrode via the respective second capacitor electrode. The support structure includes a mounting side for surface mounting, the mounting side comprising a first contact area of the first electrode and a second contact area of the second electrode. The support structure defines a cuboid interior and the capacitors are disposed in the cuboid interior. An outer side of the support structure defines an additional structural framework outside the mounting side.

Abstract: Various embodiments include a method for producing a structural unit to be soldered to a component by diffusion soldering and formed independently of the component comprising: providing a substrate; applying a paste with both metal particles and solder particles different from the metal particles onto at least one subregion of the substrate using a printing technique; and infiltrating the paste with solder in absence of the component, wherein the paste infiltrated with the solder forms a solder carrier layer. The solder infiltrating the paste is applied as at least one inherently rigid shaped part. A surface topography of the paste is modified by a stamp on the substrate.

Abstract: A circuit arrangement is disclosed herein. The circuit arrangement includes a circuit carrier board, a power semiconductor arranged on the underside of the circuit carrier board, and a wiring carrier board arranged underneath the power semiconductor. The circuit arrangement further includes a metallic first spacer element arranged between the circuit carrier board and the wiring carrier board and via which an electric load current from the power semiconductor flows, wherein the first spacer element acts as a shunt through which current flows. The circuit arrangement further includes a voltage measuring unit, by which a voltage drop across the first spacer element, produced by the load current flow, may be determined. A converter having such a circuit arrangement, an aircraft having a converter, and a method for current measurement in power semiconductors are likewise specified.

Abstract: Various embodiments include an electrical assembly comprising: an electronic switching element electrically contacted on an underside and arranged on a flexible first wiring support; wherein the electronic switching element is electrically contacted on an upper side lying opposite the lower side; and a second wiring support arranged lying opposite the first wiring support on the upper side electrical contacting area of the electronic switching element. The first wiring support and the second wiring support each comprise a permanently elastic, electrically insulating, thermally conductive material.