An apparatus for mechanically coupling a power conditioner to a photovoltaic (PV) module frame. In one embodiment, the apparatus comprises: a bracket, adapted for mechanically coupling the power conditioner to the PV module frame, comprising at least one inner-flange tab and at least one outer-flange tab for trapping a flange of the PV module frame between them; and at least one self-locking mounting structure for locking the bracket to the PV module frame without requiring any holes in the PV module frame.

The present disclosure provides a semiconductor device. The semiconductor device includes a semiconductor element, a plurality of terminals, and a sealing resin. The semiconductor element has a front surface and a back surface. The front surface and the back surface face in opposite directions to each other in a thickness direction of the semiconductor element. The plurality of terminals are disposed at a distance from the semiconductor element and are electrically connected to the front surface. The sealing resin has a first surface facing in a same direction as the direction in which the front surface faces. Each of the plurality of terminals has a main surface exposed from the first surface.

An electronic device includes an embedded die frame having a cavity and a routing structure, a semiconductor die in the cavity with a gallium nitride layer on the routing structure, and a heat spreader having a thermally conductive insulator layer and a metal plate, the thermally conductive insulator layer having a first side that faces the embedded die frame and an opposite second side that faces away from the embedded die frame, with a portion of the first side of the thermally conductive insulator layer extending over a side of a silicon substrate of the semiconductor die, and the metal plate on the second side of the thermally conductive insulator layer.

A semiconductor device includes a semiconductor element, a first lead electrically connected to the semiconductor element, and a connecting member connected to the semiconductor element and the first lead. The connecting member includes a core containing a first material, and a surface layer. The surface layer contains a first metal and covers the core. The first material includes an alloy in which at least a third metal is added to a second metal and has a higher corrosion resistance than the second metal. The third metal has the highest proportion among the metals added and has an atomic number greater than the second metal.

A semiconductor device includes: an inner frame that surrounds an outer circumference of a semiconductor chip; and an outer frame that surrounds an outer circumference of the inner frame; wherein the outer frame is configured with an exterior wall that surrounds the outer circumference of the inner frame, and a fibrous reinforcing member that is wound on an outer circumference of the exterior wall. This prevents the broken pieces of a component that constitutes the semiconductor device from being scattered outside the semiconductor device, thereby not only to achieve improvement in the reliability of the entire system, but also to achieve downsizing of the semiconductor device.

Integrated circuit (IC) device substrates and structures for mating and aligning with sockets. An IC device may include a frame on and around a substrate, which may include glass or silicon. The frame may include an alignment feature, such as a notch or hole, to mate with a complementary keying feature of a socket. A heat spreader may be coupled to an IC die and extend beyond the substrate or be coupled to the frame. The heat spreader may include a heat pipe. The IC device may be part of an IC system with the device substrate coupled to a system substrate by a socket configured to mate to the frame.

The present disclosure provides a semiconductor device. The semiconductor device includes a semiconductor element, a plurality of terminals, and a sealing resin. The semiconductor element has a front surface and a back surface. The front surface and the back surface face in opposite directions to each other in a thickness direction of the semiconductor element. The plurality of terminals are disposed at a distance from the semiconductor element and are electrically connected to the front surface. The sealing resin has a first surface facing in a same direction as the direction in which the front surface faces. Each of the plurality of terminals has a main surface exposed from the first surface.

A semiconductor die package and a method of forming the same are provided. The semiconductor die package includes a package substrate and a semiconductor device disposed over the package substrate. A ring structure is disposed over the package substrate and laterally surrounds the semiconductor device. The ring structure includes a lower ring portion arranged around the periphery of the package substrate. Multiple notches are formed along the outer periphery of the lower ring portion. The ring structure also includes an upper ring portion integrally formed on the lower ring portion. The upper ring portion laterally extends toward the semiconductor device, so that the inner periphery of the upper ring portion is closer to the semiconductor device than the inner periphery of the lower ring portion. An adhesive layer is interposed between the lower ring portion and the package substrate.

The present disclosure provides a semiconductor device. The semiconductor device includes a semiconductor element, a plurality of terminals, and a sealing resin. The semiconductor element has a front surface and a back surface. The front surface and the back surface face in opposite directions to each other in a thickness direction of the semiconductor element. The plurality of terminals are disposed at a distance from the semiconductor element and are electrically connected to the front surface. The sealing resin has a first surface facing in a same direction as the direction in which the front surface faces. Each of the plurality of terminals has a main surface exposed from the first surface.

An integrated circuit (IC) device includes an IC die and a plurality of leads. Each lead includes an unplated proximal end including a first material, and an unplated distal end including the first material. A plated bond wire portion extends between the proximal and distal ends and includes the first material and a plating of a second material thereon. A plurality of bond wires extend between the IC die and the plated bond wire portions of the leads. An encapsulation material surrounds the IC die and bond wires so that the unplated proximal end and plated bond wire portion of each lead are covered by the encapsulation material.