Abstract: A light-emitting diode device has a first carrier and at least one light-emitting diode chip, which is arranged on the first carrier. The first carrier has at least one first and one second carrier part, wherein the light-emitting diode chip rests only on the first carrier part. Furthermore, the first and second carrier parts each have a thermal conductivity. The thermal conductivity of the first carrier part is at least 1.5 times the thermal conductivity of the second carrier part. The first carrier part is surrounded laterally by the second carrier part.

Abstract: A light-emitting diode arrangement includes a light-emitting diode and a coding resistor for coding the light-emitting diode. The coding resistor is embodied as a star connection of a number of resistors. Furthermore, a module includes a plurality of light-emitting diode arrangements. Furthermore, a method for producing a light-emitting diode arrangement is specified, wherein the coding of a coding resistor is carried out depending on a determined characteristic of the light-emitting diode.

Abstract: A method for producing an electrical component, comprises providing a ceramic semiconducting base body (10) having a surface (O10) and a first side area (S10a) lying opposite the surface (O10), wherein a metallic layer (40) is contained within the base body. After at least two further metallic layers (210) have been arranged separately from one another on the side area (S10a) of the base body, the arrangement is sintered. An electrically insulating layer (30) is arranged between the at least two further metallic layers (210). A respective contact layer (220) is arranged on the metallic layers (210) by means of a chemical process. In this case, the material of the base body (10) is removed proceeding from the surface (O10) of the base body (10) at most as far as the metallic layer (40) arranged within the base body.

Abstract: A light-emitting diode arrangement includes a light-emitting diode and a coding resistor for coding the light-emitting diode. The coding resistor is embodied as a star connection of a number of resistors. Furthermore, a module includes a plurality of light-emitting diode arrangements. Furthermore, a method for producing a light-emitting diode arrangement is specified, wherein the coding of a coding resistor is carried out depending on a determined characteristic of the light-emitting diode.

Abstract: A light-emitting diode device has a first carrier and at least one light-emitting diode chip, which is arranged on the first carrier. The first carrier has at least one first and one second carrier part, wherein the light-emitting diode chip rests only on the first carrier part. Furthermore, the first and second carrier parts each have a thermal conductivity. The thermal conductivity of the first carrier part is at least 1.5 times the thermal conductivity of the second carrier part. The first carrier part is surrounded laterally by the second carrier part.

Abstract: A component assembly and a method for manufacturing a component assembly are disclosed. In some embodiments a component assembly includes a carrier, a metallic structure arranged on the carrier, wherein the metallic structure comprises at least one cavity and an electrical component arranged at least in part in the cavity.

Abstract: A carrier plate includes a substrate and at least one conductor track. The conductor track includes a first layer, which is applied directly on the substrate, and a second layer, which is arranged on the first layer. The second layer includes a supply line region and a soldering region. Furthermore, the second layer is completely interrupted between the supply line region and the soldering region. A device can be produced with a carrier plate and an electrical component arranged on the carrier plate.

Abstract: A light-emitting diode device includes a carrier having at least one cavity, a light-emitting diode chip is arranged in a manner at least partly recessed in the at least one cavity, and an ESD protection element, which is formed by a partial region of the carrier. Furthermore, a light-emitting diode device includes a carrier having at least one cavity, a light-emitting diode chip, arranged on the carrier, and an electrical component arranged at least partly recessed in the at least one cavity. Furthermore, the light-emitting diode device includes an ESD protection element, which is formed by a partial region of the carrier.

Abstract: A method for patterning a layer stack with at least one ceramic layer includes providing the ceramic layer, which has at least one plated-through hole. An electrically conductive layer is applied above the ceramic layer, such that the electrically conductive layer is electrically coupled to the at least one plated-through hole. A further layer is deposited onto the electrically conductive layer in the region of the at least one plated-through hole, wherein the further layer includes nickel. The electrically conductive layer is removed outside the region of the at least one plated-through hole. A carrier device patterned in this way can be electrically and mechanically coupled to an electronic component.

Abstract: A method for producing an electric contact-connection of a multilayer component is specified. A main body has internal electrode layers, a insulating material, an electrically conductive material and a photosensitive material are provided. The insulating material and the electrically conductive material are arranged in a structured manner on an outer side of the multilayer component for the alternate contact-connection of the internal electrode layers. The structured arrangement is produced by the photosensitive material. A multilayer component comprising such a contact-connection is furthermore specified.

Abstract: A method for producing an electrical component, comprises providing a ceramic semiconducting base body (10) having a surface (O10) and a first side area (S10a) lying opposite the surface (O10), wherein a metallic layer (40) is contained within the base body. After at least two further metallic layers (210) have been arranged separately from one another on the side area (S10a) of the base body, the arrangement is sintered. An electrically insulating layer (30) is arranged between the at least two further metallic layers (210). A respective contact layer (220) is arranged on the metallic layers (210) by means of a chemical process. In this case, the material of the base body (10) is removed proceeding from the surface (O10) of the base body (10) at most as far as the metallic layer (40) arranged within the base body.

Abstract: A method for producing an electrical component (1) is proposed, in which a ceramic base body (5) that contains a through-hole contact (10) and at least one metallization surface (20C) electroconductively connected to the through-hole contact is provided in a method step A). On the surface of the base body, an electrically insulating first material is arranged in layer form at least above the through-hole contact in method step B), and thereafter an electrically conductive second material is applied above through-hole contact (10) in method step C). Then a solder contact (30B) that electroconductively connects through-hole contact (10) through passivation layer (25B), which is formed from the first material by sintering, is formed by hardening in method step D).

Abstract: A module substrate includes a multilayer substrate that includes a plurality of layers, a bottommost of the layers being a ceramic layer. Solderable contacts, which include fired pads composed of a conductive paste, are applied to the bottommost ceramic layer. A covering layer overlies the pads. The covering layer covers all outer edges of the pads. A window is cut out of the covering layer. A metallic coating is applied to each pad exclusively within the window.

Abstract: A method for patterning a layer stack with at least one ceramic layer includes providing the ceramic layer, which has at least one plated-through hole. An electrically conductive layer is applied above the ceramic layer, such that the electrically conductive layer is electrically coupled to the at least one plated-through hole. A further layer is deposited onto the electrically conductive layer in the region of the at least one plated-through hole, wherein the further layer includes nickel. The electrically conductive layer is removed outside the region of the at least one plated-through hole. A carrier device patterned in this way can be electrically and mechanically coupled to an electronic component.

Abstract: A method for producing an electrical component (1) is proposed, in which a ceramic base body (5) that contains a through-hole contact (10) and at least one metallization surface (20C) electroconductively connected to the through-hole contact is provided in a method step A). On the surface of the base body, an electrically insulating first material is arranged in layer form at least above the through-hole contact in method step B), and thereafter an electrically conductive second material is applied above through-hole contact (10) in method step C). Then a solder contact (30B) that electroconductively connects through-hole contact (10) through passivation layer (25B), which is formed from the first material by sintering, is formed by hardening in method step D).

Abstract: A multilayer component includes at least one inductive region and at least one capacitive region. The inductive region includes a ferrite ceramic. Electrode structures are arranged on the outwardly facing top side of the inductive region. The electrode structures form at least one coil structure having an inductance.

Abstract: An electrical component includes a base body made using ceramic, metallization surfaces that at least partly define component structures on the base body, a passivation layer that is electrically insulating and over a surface of the base body, solder contacts on the passivation layer, and through-hole contacts inside the base body that are electrically connected to corresponding metallization surfaces. The solder contacts are electrically connected to corresponding through-hole contacts through the passivation layer.

Abstract: A module substrate includes a multilayer substrate that includes a plurality of layers, a bottommost of the layers being a ceramic layer. Solderable contacts, which include fired pads composed of a conductive paste, are applied to the bottommost ceramic layer. A covering layer overlies the pads. The covering layer covers all outer edges of the pads. A window is cut out of the covering layer. A metallic coating is applied to each pad exclusively within the window.

Abstract: An electrical component having multiple layers includes dielectric layers that are stacked to form a main body, electrodes positioned at intervals between at least some of the dielectric layers, and at least two bumps configured to act as electrical contacts for the electrical component. The bumps are on a surface of the main body. The electrical component also includes contacts in the main body that electrically connect bumps and electrodes. The electrodes define first and second electrode stacks, each of which contacts one of the bumps.

Abstract: An electrical component includes ceramic layers that are stacked to form a base body, electrode layers among the ceramic layers to form at least one capacitor, at least one phase gate on a ceramic layer that corresponds to a surface of the base body, contact surfaces on a top surface of the base body, and through contacts that electrically connect the electrode layers to the contact surfaces. The through contacts are inside the base body at least in part. Side surfaces of the base body are substantially free of surface metallic contacts and of metal plating.