Abstract:
A current sensor device for sensing a measuring current includes a semiconductor chip having a magnetic field sensitive element. The current sensor device further includes an encapsulant embedding the semiconductor chip. A conductor configured to carry the measuring current is electrically insulated from the magnetic field sensitive element. A redistribution structure includes a first metal layer having a first structured portion which forms part of the conductor.
Abstract:
In various embodiments, a sensor apparatus is provided. The sensor apparatus includes a sensor device having a plurality of electrical contacts; a housing having a plurality of sidewalls; and a metal carrier structure, which extends into the housing in a manner passing through two mutually opposite sidewalls from the plurality of sidewalls. The metal carrier structure is embodied in a resilient fashion at least in the direction of a sidewall through which the metal carrier structure extends. The sensor device having the plurality of electrical contacts is mounted in a resilient fashion on the metal carrier structure and is electrically conductively connected to the metal carrier structure by the plurality of contacts.
Abstract:
A sensor structure is disclosed. The sensor structure may include a lead frame for supporting a MEMS sensor, a recess in a surface of the lead frame, and a MEMS sensor coupled to the surface of the lead frame and arranged over the recess to form a chamber. Alternatively, the lead frame may have a perforation formed through it and the MEMS sensor may be coupled to the surface of the lead frame and arranged over an opening of the perforation.
Abstract:
An apparatus may include a back-bias magnet; and a semiconductor chip element; wherein the semiconductor chip element has a sensor for measuring a magnetic field strength; and wherein a contact surface is formed on a contact side of the back-bias magnet and on a contact side of the semiconductor chip element and wherein the contact side of the semiconductor chip element has one or more structures such that the contact surface of the back-bias magnet is shaped in a manner corresponding to the structures of the semiconductor chip element.
Abstract:
In one aspect, a method of packaging a semiconductor module includes providing a semiconductor module having a first surface, a second surface opposite the first surface and edge sides extending between the first surface and the second surface. A packaging assembly is formed at least partly by a 3D printing process. The packaging assembly includes the semiconductor module and a protective covering that extends over the first surface.
Abstract:
A MEMS device includes a first chip and a MEMS chip. The first chip has a mounting surface and includes at least an integrated circuit. The MEMS chip has a main surface on which a first set of contact pads for contacting the MEMS device and a second set of contact pads for contacting the first chip are arranged. The first chip is mechanically attached and electrically connected to the second set of contact pads via the mounting surface facing the main surface. The mounting surface of the first chip is at least 25% smaller than the main surface of the MEMS chip.
Abstract:
A graphene layer is generated on a substrate. A plastic material is deposited on the graphene layer to at least partially cover the graphene layer. The substrate is separated into at least two substrate pieces.
Abstract:
A module and a method for manufacturing a module are disclosed. An embodiment of a module includes a first semiconductor device, a frame arranged on the first semiconductor device, the frame including a cavity, and a second semiconductor device arranged on the frame wherein the second semiconductor device seals the cavity.
Abstract:
In various embodiments, a method for manufacturing a chip arrangement, the method including bonding a microphone chip to a first carrier, the microphone chip including a microphone structure, depositing adhesive material laterally disposed from the microphone structure, and arranging the microphone structure into a cavity of a second carrier such that the adhesive material fixes the microphone chip to the cavity of the second carrier.
Abstract:
An embedded chip package is provided. The embedded chip package includes a plurality of chips; encapsulation material embedding the plurality of chips; at least one electrical redistribution layer electrically connected to the plurality of chips; and a common terminal connected to the at least one electrical redistribution layer, wherein the common terminal provides an interface to at least one of transmit and receive a common electrical signal between the plurality of chips and the common terminal.