Abstract: An electronic module is provided, which comprises a first carrier; an electronic chip comprising at least one electronic component and arranged on the first carrier; a spacing element comprising a surface arranged on the electronic chip and being in thermal conductive connection with the at least one electronic component; a second carrier arranged on the spacing element; and a mold compound enclosing the electronic chip and the spacing element at least partially; wherein the spacing element comprises a material having a CTE value being matched with at least one other CTE.

Abstract: In various embodiments, a substrate is provided. The substrate may include: a ceramic carrier having a first side and a second side opposite the first side; a first metal layer disposed over the first side of the ceramic carrier; a second metal layer disposed over the second side of the ceramic carrier; and a cooling structure formed into or over the second metal layer.

Abstract: Various embodiments provide an electronic module comprising a interposer comprising a fluid channel formed in an electrically isolating material and an electrically conductive structured layer; at least one electronic chip attached to the electrically conductive layer and in thermal contact to the fluid channel; and a molded encapsulation formed at least partially around the at least one electronic chip, wherein the electrically conductive structured layer is directly formed on the electrically isolating material.

Abstract: A chip arrangement is provided, the chip arrangement, including a carrier; at least one chip electrically connected to a carrier top side; an encapsulation material at least partially surrounding the at least one chip and the carrier top side, wherein the encapsulation material is formed on one or more lateral sides of the carrier; and a ceramic material disposed on a carrier bottom side, and on at least one side of the encapsulation material.

Abstract: A chip arrangement is provided, the chip arrangement, including a carrier; at least one chip electrically connected to a carrier top side; an encapsulation material at least partially surrounding the at least one chip and the carrier top side, wherein the encapsulation material is formed on one or more lateral sides of the carrier; and a ceramic material disposed on a carrier bottom side, and on at least one side of the encapsulation material.

Abstract: According to an exemplary embodiment, a power module is provided which comprises a semiconductor chip, a bonding substrate comprising an electrically conductive sheet and an electric insulator sheet which is directly attached to the electrically conductive sheet and which is thermally coupled to the semiconductor chip, and an array of cooling structures directly attached to the electrically conductive sheet and configured for removing heat from the semiconductor chip when interacting with cooling fluid.

Abstract: An electronic module is provided, which comprises a first carrier; an electronic chip comprising at least one electronic component and arranged on the first carrier; a spacing element comprising a surface arranged on the electronic chip and being in thermal conductive connection with the at least one electronic component; a second carrier arranged on the spacing element; and a mold compound enclosing the electronic chip and the spacing element at least partially; wherein the spacing element comprises a material having a CTE value being matched with at least one other CTE.

Abstract: In various embodiments, a substrate is provided. The substrate may include: a ceramic carrier having a first side and a second side opposite the first side; a first metal layer disposed over the first side of the ceramic carrier; a second metal layer disposed over the second side of the ceramic carrier; and a cooling structure formed into or over the second metal layer.

Abstract: A method of manufacturing a power module comprising two substrates is provided, wherein the method comprises disposing a compensation layer of a first thickness above a first substrate; disposing a second substrate above the compensation layer; and reducing the thickness of the compensation layer from the first thickness to a second thickness after the second substrate is disposed on the compensation layer

Abstract: According to an exemplary embodiment, a power module is provided which comprises a semiconductor chip, a bonding substrate comprising an electrically conductive sheet and an electric insulator sheet which is directly attached to the electrically conductive sheet and which is thermally coupled to the semiconductor chip, and an array of cooling structures directly attached to the electrically conductive sheet and configured for removing heat from the semiconductor chip when interacting with cooling fluid.

Abstract: A chip arrangement is provided, the chip arrangement, including a carrier; at least one chip electrically connected to a carrier top side; an encapsulation material at least partially surrounding the at least one chip and the carrier top side, wherein the encapsulation material is formed on one or more lateral sides of the carrier; and a ceramic material disposed on a carrier bottom side, and on at least one side of the encapsulation material.

Abstract: In various embodiments, a chip module may include a substrate; electronic components, the electronic components being arranged on a first side of the substrate; and an insulating layer, which is applied to the first side of the substrate and to the electronic components, contact openings being arranged in the insulating layer which permit electrical contacting of the electronic components; and an electrically conducting layer being arranged on the insulating layer and in the contact openings, which connects the electronic components electrically to one another.

Abstract: The invention relates to a power module 3 and a method for producing it. The power module 3 has a first substrate 1 having power semiconductor chips 4, and a second substrate 2 populated with signal semiconductor chips 5. The substrates 1 and 2 are oriented parallel one above the other, their placement sides 7 and 8 being arranged facing one another, and the second substrate 2, with the aid of bonding wires 9 bent in hingelike fashion, being held at a defined distance d from the first substrate 1 and being mechanically fixed in a plastic housing 18 and electrically connected.

Abstract: The invention relates to a power module 3 and a method for producing it. The power module 3 has a first substrate 1 having power semiconductor chips 4, and a second substrate 2 populated with signal semiconductor chips 5. The substrates 1 and 2 are oriented parallel one above the other, their placement sides 7 and 8 being arranged facing one another, and the second substrate 2, with the aid of bonding wires 9 bent in hingelike fashion, being held at a defined distance d from the first substrate 1 and being mechanically fixed in a plastic housing 18 and electrically connected.

Abstract: A power module and a method for producing it. The power module has a first substrate having power semiconductor chips, and a second substrate populated with signal semiconductor chips. The substrates are oriented parallel one above the other, their placement sides being arranged facing one another, and the second substrate, with the aid of bonding wires bent in hingelike fashion, being held at a defined distance d from the first substrate and being mechanically fixed in a plastic housing and electrically connected.

Abstract: A power module and a method for producing it. The power module has a first substrate having power semiconductor chips, and a second substrate populated with signal semiconductor chips. The substrates are oriented parallel one above the other, their placement sides being arranged facing one another, and the second substrate, with the aid of bonding wires bent in hingelike fashion, being held at a defined distance d from the first substrate and being mechanically fixed in a plastic housing and electrically connected.

Abstract: A power module has a circuit carrier that, on its upper side is coated with a structured metal layer and mounted with power components. The power components are driven by flat conductors, the inner flat-conductor ends of which interact, via thermocompression heads, with contact-connection surfaces, while the outer flat-conductor ends project out of the housing of the power module. A process is described for producing the power module.