Abstract:
A method of manufacturing a package which comprises encapsulating at least part of an electronic chip by an encapsulant, subsequently covering a part of the electronic chip with a chip attach medium, and attaching the encapsulated electronic chip on a chip carrier via the chip attach medium.
Abstract:
A power semiconductor device includes a power transistor arranged in a power device region of a semiconductor substrate. The power semiconductor device further includes a first circuit arranged in a first circuit region of the semiconductor substrate. The power semiconductor device further includes a second circuit arranged in a second circuit region of the semiconductor substrate. The first circuit region is arranged at a first edge of the semiconductor substrate. The second circuit region is arranged at a second edge of the semiconductor substrate. The power device region is arranged between the first circuit region and the second circuit region.
Abstract:
A semiconductor power arrangement includes a chip carrier having a first surface and a second surface opposite the first surface. The semiconductor power arrangement further includes a plurality of power semiconductor chips attached to the chip carrier, wherein the power semiconductor chips are inclined to the first and/or second surface of the chip carrier.
Abstract:
In various embodiments, a chip package is provided. The chip package may include a chip, a metal contact structure including a non-noble metal and electrically contacting the chip, a packaging material, and a protective layer including or essentially consisting of a portion formed at an interface between a portion of the metal contact structure and the packaging material, wherein the protective layer may include a noble metal, wherein the portion of the protective layer may include a plurality of regions free from the noble metal, and wherein the regions free from the noble metal may provide an interface between the packaging material and the non-noble metal of the metal contact structure.
Abstract:
A power semiconductor device includes a wiring structure adjoining at least one side of a semiconductor body and comprising at least one electrically conductive compound. The power semiconductor device further includes a cooling material in the wiring structure. The cooling material is characterized by a change in structure by means of absorption of energy at a temperature TC ranging between 150° C. and 400° C.
Abstract:
Methods for connecting chips to a chip carrier are disclosed. In some embodiments the method for connecting a plurality of chips to a chip carrier includes placing first chips on a transfer carrier, placing second chips on the transfer carrier, placing the transfer carrier with the first and second chips on the chip carrier and forming connections between the first chips and the chip carrier and the second chips and the chip carrier.
Abstract:
Described are techniques related to semiconductor devices that make use of encapsulant. In one implementation, a semiconductor device may be manufactured to include at least an encapsulant that includes at least glass particles.
Abstract:
Micromechanical semiconductor sensing device comprises a micromechanical sensing structure being configured to yield an electrical sensing signal, and a piezoresistive sensing device provided in the micromechanical sensing structure, said piezoresistive sensing device being arranged to sense a mechanical stress disturbing the electrical sensing signal and being configured to yield an electrical disturbance signal based on the sensed mechanical stress disturbing the electrical sensing signal.
Abstract:
A chip arrangement is provided, the chip arrangement, including a carrier; a first chip electrically connected to the carrier; a ceramic layer disposed over the carrier; and a second chip disposed over the ceramic layer; wherein the ceramic layer has a porosity in the range from about 3% to about 70%.
Abstract:
A micromechanical semiconductor sensing device is disclosed. In an embodiment the sensing device includes a micromechanical sensing structure being configured to yield an electrical sensing signal, and a piezoresistive sensing device provided in the micromechanical sensing structure, the piezoresistive sensing device being arranged to sense a mechanical stress disturbing the electrical sensing signal and being configured to yield an electrical disturbance signal based on the sensed mechanical stress disturbing the electrical sensing signal.