A shielded semiconductor device has a first die attached to a die pad of a lead frame and a second die attached to a surface of the first die. The first die is electrically connected to inner lead ends of leads that surround the die pad, and the second die is electrically connected to the first die and to an inner end of a shielding lead. A mold compound forms a body around the first and second dies and the electrical connections. Outer lead ends of the leads project from the sides of the body. The outer end of the shielding lead projects from a central location of one side of the body and is bent up the side surface from which it projects and over the top of the body and provides EMI shielding.

A shielded semiconductor device has a first die attached to a die pad of a lead frame and a second die attached to a surface of the first die. The first die is electrically connected to inner lead ends of leads that surround the die pad, and the second die is electrically connected to the first die and to an inner end of a shielding lead. A mold compound forms a body around the first and second dies and the electrical connections. Outer lead ends of the leads project from the sides of the body. The outer end of the shielding lead projects from a central location of one side of the body and is bent up the side surface from which it projects and over the top of the body and provides EMI shielding.

In a transistor formed on a semiconductor die mounted on a substrate, where the transistor output is connected to a circuit on the substrate, a bond pad electrically connected to a transistor drain finger manifold extends less than the full length of the manifold. By controlling the length of the bond pad, the parasitic capacitance it contributes may be controlled. In applications such as a Doherty amplifier, this parasitic capacitance forms part of the quarter-wave transmission line of an impedance inverter, and hence directly impacts amplifier performance. In particular, by reducing the parasitic capacitance contribution from transistor output bond pads, the bandwidth of a Doherty amplifier circuit may be improved. At GHz frequencies and with state of the art transistor device feature sizes, concerns about phase mismatch between drain finger outputs are largely moot.

A packaged radio frequency (RF) amplifier device includes a flange and a transistor die mounted to the flange. The transistor die includes an output terminal. The packaged RF amplifier device includes a first bond wire array including a first plurality of bond wires. Each bond wire in the first plurality of bond wires is electrically coupled to the output terminal of the transistor die. A first ground loop area of a first bond wire in the first plurality of bond wires is greater than a second ground loop area of a second bond wire in the first plurality of bond wires.

A high power module is provided, which includes a substrate, plural first power chips, plural second power chips, a positive electrode plate and a negative electrode plat. The substrate includes a first metal area, a second metal area, a third metal area disposed between the first metal area and the second metal area. The first power chips are disposed on the third metal area and connected to the first metal area via plural first connection elements. The second power chips are disposed on the second metal area and connected to the third metal area via plural second connection elements. The positive electrode plate is C-shaped and connected to the first metal area. The negative electrode plate is C-shaped and connected to the second metal area; the direction of the opening of the negative electrode plate is contrary to that of the opening of the positive electrode plate.

A manufacturing method of micro LED display module is provided. The micro LED display module comprises a driver chip block, a LED block, a circuit board and a color layer. The driver chip block has a plurality of pixel electrodes. The LED block is disposed in the driver chip block and has two semiconductor layers and a plurality of trenches. One of the two semiconductor layers is electrically connected to the pixel electrodes and the other is electrically connected to the light transmissive conductive layer. The trenches define a plurality of micro LED pixels arranged in an array. Each trench at least penetrates through the light emitting layer and one of the semiconductor layers. Each micro LED pixel corresponds to one of the pixel electrodes. The circuit board is electrically connected to the driver chip block, and the color layer is disposed on the light transmissive conductive layer.

A system and method for fabricating distinct types of circuit connections on a semiconductor wafer includes fabricating, using a first photomask, a plurality of a first type of circuit connections for each of a plurality of distinct die of a semiconductor wafer; and fabricating, using a second photomask, a plurality of a second type of circuit connections between a plurality of distinct pairs of components of the semiconductor wafer, wherein each distinct pair of components includes at least one distinct die of the plurality of distinct die and one of a conductive pad and a sacrificial die.

A semiconductor package includes a package substrate having an upper surface and a lower surface and including a plurality of substrate pads formed on the upper surface, a capacitor structure arranged on the upper surface of the package substrate and including a semiconductor substrate and at least one decoupling capacitor formed in the upper surface of the semiconductor substrate, a plurality of first semiconductor chips mounted on the package and supported by the capacitor structure, first conductive connection members electrically connecting chip pads of the first semiconductor chips to the substrate pads, and second conductive connection members electrically connecting capacitor pads of the decoupling capacitor to the substrate pad.

An emitter package can include: a body having a bottom member, side members extending from the bottom member, and a top surface, wherein the body defines a cavity formed into the top surface and located between the bottom member and side members; the cavity having top side walls extending from the top surface to optic shelves, middle side walls extending from the optic shelves to contact shelves, and bottom side walls extending from the contact shelves to a base surface; electrical conductive pads on the base surface in the cavity; emitter chips on the electrical conductive pads, each emitter chip having one or more light emitters; shelf contact pads on the contact shelves; and electrical connector wires connected to and extending between the emitter chips and the shelf contact pads.

Disclosed is a semiconductor package comprising a substrate, a semiconductor chip on the substrate, a molding layer on the substrate covering the semiconductor chip, and a shield layer on the molding layer. The shield layer includes a polymer in which a plurality of conductive structures and a plurality of nano-structures are distributed wherein at least some of the conductive structures are connected to one another.