Abstract: A pressure sensor package includes a pressure sensor having a first side with a pressure sensor port, a second side opposite the first side, and electrical contacts. A logic die stacked on the pressure sensor has a first side attached to the second side of the pressure sensor and a second side opposite the first side with electrical contacts. The logic die is laterally offset from the electrical contacts of the pressure sensor and operable to process signals from the pressure sensor. Electrical conductors connect the electrical contacts of the pressure sensor to the electrical contacts of the logic die. Molding compound encapsulates the pressure sensor, the logic die and the electrical conductors, and has an opening defining an open passage to the pressure sensor port. External electrical contacts are provided at a side of the pressure sensor package.

Abstract: A current sensor device includes a casing having a cavity and a conductor fixedly mounted to the casing. A semiconductor chip configured to sense a magnetic field is arranged in the cavity. An electrically insulating medium is configured to at least partially fill the cavity of the casing.

Abstract: A microphone assembly is provided, wherein the pre-mold comprises a bent leadframe and a mold body, wherein the mold body is mold to at least partially encapsulate the bent leadframe to build the pre-mold comprising a cavity for accommodating a microphone, and wherein the pre-mold comprises a through-hole transmissive for sound waves.

Abstract: An apparatus for determining a state of a rechargeable battery or of a battery has a sensor device and an evaluation device. The sensor device brings about an interaction between an optical signal and a part of the rechargeable battery or of the battery, which part indicates optically acquirable information about a state of the rechargeable battery or of the battery, and detects an optical signal caused by the interaction. The sensor device furthermore provides a detection signal having information about the detected optical signal. The evaluation device determines information about a state of the rechargeable battery or of the battery on the basis of the information of the detection signal. Furthermore, the evaluation device provides a state signal having the information about the determined state.

Abstract: A method for producing a component and device including a component is disclosed. A basic substrate having paper as substrate material is provided, at least one integrated circuit is applied to the basic substrate, the at least one integrated circuit applied on the basic substrate is enveloped with an encapsulant, and at least parts of the basic substrate are removed from the at least one enveloped integrated circuit.

Abstract: A module including a micro-electro-mechanical microphone is disclosed. One embodiment provides a substrate having a trough-shaped depression and a micro-electro-mechanical microphone. The micro-electro-mechanical microphone is mounted into the trough-shaped depression of the substrate.

Abstract: A method for producing a component and device including a component is disclosed. A basic substrate having paper as substrate material is provided, at least one integrated circuit is applied to the basic substrate, the at least one integrated circuit applied on the basic substrate is enveloped with an encapsulant, and at least parts of the basic substrate are removed from the at least one enveloped integrated circuit.

Abstract: A method for producing a component and device including a component is disclosed. A basic substrate having paper as substrate material is provided, at least one integrated circuit is applied to the basic substrate, the at least one integrated circuit applied on the basic substrate is enveloped with an encapsulant, and at least parts of the basic substrate are removed from the at least one enveloped integrated circuit.

Abstract: Embodiments relate to magnetic field current sensors. In an embodiment, a method of forming a conductor clip for a magnetic field current sensor comprises forming a footprint portion; forming first and second contact portions; and forming first and second pillar portions coupling the first and second contact portions, respectively, to the footprint portion, the first and second pillar portions having a constant height and being at approximate right angles to the first and second contact portions and the footprint portion.

Abstract: This application relates to a method of manufacturing a semiconductor device comprising: providing a metal carrier; placing the metal carrier into a mold for forming a molded structure holding the metal carrier; segmenting the metal carrier into at least two disconnected metal carrier segments; and attaching a semiconductor chip to the molded structure.

Abstract: A semiconductor device (7) has gold coatings (1 to 5) which are applied to metallic or ceramic components (6) of the semiconductor device (7). The gold coatings (1 to 4) have a multifunctional multilayer metal coating (8) with a minimal gold layer (9). The gold layer has a thickness dG where dG?0.5 ?m. Moreover, at least one metallic interlayer (10) is arranged between the gold layer (9) and the metallic or ceramic components (6).

Abstract: A semiconductor component for radio-frequency applications has at least one substrate and one chip, and with contact pads is disclosed. In one embodiment, bonding wires connect the contact pads on the chip to the contact connecting pads. Signals are passed via these contact pads such that signals at high frequencies are passed via one or more contact pads and signals at low frequencies are passed via one or more contact pads. The chip is shifted on the substrate from a central position with respect to the totality of the contact connecting pads, so that the bonding wires for those contact pads via which signals at a high frequency are passed are shorter than bonding wires for those contact pads via which signals at low frequencies are passed.

Abstract: A panel for the production of electronic components is disclosed. The components have a substantially planar semiconductor chip with chip through-contacts which are provided with electrically conductive material. A rewiring region is subdivided into an insulating layer and also a first rewiring arranged therein, the rewiring projecting laterally beyond the side edge of the planar semiconductor chip. The rewiring has external contacts for electrical connections toward the outside. The panel provides a filling layer made of plastic, which encapsulates the semiconductor chip in a side region between the chip front side and the chip rear side and which is connected to the rewiring region.

Abstract: A connector module (31, 71) has a base body (21) having a first contact (27) for electrically contacting an optoelectronic module (72) to be positioned into a depression (36) in the base body, a second contact (25) for electronically contacting a board, and a conductive trace (23) for electrically connecting the first (27) and second (25) contacts on a surface of the base body (21), and a molded part (33), the molded part (33) being cast onto the base body (21) across a first part of the surface, and the base body (21) and/or the molded part (33) defining a through-opening (13, 19, 37) for introducing a fiber (73). The base body (21) and the molded part (33) form two jaws for gripping the fiber (73).

Abstract: A semiconductor having a leadframe is disclosed. In one embodiment, a leadframe is disclosed to be fitted with a semiconductor chip and is to be encapsulated with a plastic compound has a metallic single-piece base body, to which an interlayer is applied. The interlayer has a surface including a matrix of islands of remaining material of substantially uniform height, with voids extending between said islands.

Abstract: A semiconductor sensor device includes a sensor chip. The sensor chip includes a sensor region and contact areas on its upper side and is further arranged in a cavity housing. The cavity housing includes side walls, a housing bottom, a cavity, external contacts on the outside of the cavity and contact pads on an upper side of the housing bottom facing the cavity. The sensor chip is embedded into a rubber-elastic plastic composition within the cavity of the cavity housing such that the sensor region of the sensor chip faces the housing bottom and the contact areas of the sensor chip are electrically connected to the contact pads on the housing bottom via elastic flip-chip contacts.

Abstract: A semiconductor device includes surface-mountable external contacts on an underside of the semiconductor device, wherein the external contacts are arranged on external contact pads and surrounded by a solder-resist layer. The external contacts of the outer edge regions include external contact pads that merge into inspection tags, wherein the inspection tags can be wetted by solder and are not covered by the solder-resist layer.

Abstract: This application relates to a method of manufacturing a semiconductor device comprising: providing a metal carrier; placing the metal carrier into a mold for forming a molded structure holding the metal carrier; segmenting the metal carrier into at least two disconnected metal carrier segments; and attaching a semiconductor chip to the molded structure.

Abstract: A semiconductor device for radio frequencies of more than 10 GHz having a semiconductor chip is disclosed. In one embodiment, the semiconductor chip, on its active top side, having a radio-frequency region and a low-frequency region and/or a region which is supplied with DC voltage. In one embodiment, the low-frequency region and/or the region which is supplied with DC voltage of the semiconductor chip is directly embedded in a plastic housing composition, the plastic housing composition is arranged such that it is spaced apart from the radio-frequency region on the active top side of the semiconductor chip.

Abstract: A chip carrier includes a first surface and a second surface that opposes the first surface. The chip carrier acts as a heat sink for semiconductor chips arranged on it. A first recess is provided in the first surface, and a second recess is provided in the second surface. First and second semiconductor chips are respectively received in the first and second recesses.