Abstract: A semiconductor device includes a semiconductor die having a top side surface comprising a semiconductor material including circuitry therein having bond pads connected to nodes in the circuitry, a bottom side surface, and sidewall surfaces between the top side surface and the bottom side surface. A metal coating layer including a bottom side metal layer is over the bottom side surface that extends continuously to a sidewall metal layer on the sidewall surfaces. The sidewall metal layer defines a sidewall plane that is at an angle from 10° to 60° relative to a normal projected from a bottom plane defined by the bottom side metal layer.

Abstract: Provided is a method for manufacturing a thermoelectric conversion module that eliminates the need for supports and solder materials, allows collective and efficient production of a plurality of thin thermoelectric conversion modules, and includes the following steps (A) to (D): (A) disposing a chip of a P-type thermoelectric conversion material and a chip of an N-type thermoelectric conversion material on a support so as to be spaced apart from each other; (B) filling an insulator between the chip of the P-type thermoelectric conversion material and the chip of the N-type thermoelectric conversion material to obtain an integrated body including the chip of the P-type thermoelectric conversion material, the chip of the N-type thermoelectric conversion material, and the insulator; (C) peeling the integrated body obtained in step (B) from the support; and (D) connecting the chip of the P-type thermoelectric conversion material and the chip of the N-type thermoelectric conversion material via an electrode in the

Abstract: Provided is a thin thermoelectric conversion module provided with no support base material and including: an integrated body including an insulator configured to fill a gap defined by a chip of a P-type thermoelectric conversion material and a chip of an N-type thermoelectric conversion material, the chips being alternately arranged and spaced apart from each other; a common first electrode provided on one surface of the integrated body and joining one surface of the chip of the P-type thermoelectric conversion material and one surface of the chip of the N-type thermoelectric conversion material; and a common second electrode provided on another surface of the integrated body, facing the first electrode, and joining another surface of the chip of the N-type thermoelectric conversion material and another surface of the chip of the P-type thermoelectric conversion material, in which the first electrode and the second electrode provide electrically serial connection between the chip of the P-type thermoelectric

Abstract: An electronic device (100) includes a substrate (110) and an integrated circuit (120) provided on the substrate (110) having a surface facing away from the substrate (110). An insulating layer (150) extends over the substrate (110) and around the integrated circuit (120) to define an interface (154) between the insulating layer (150) and the integrated circuit (120). An electrically conductive via (130) is provided on the surface of the integrated circuit (120). An insulating material (140) extends over the via (130) and includes an opening (142) exposing a portion of the via (130). A repassivation member (162) extends over the insulating layer (150) and has a surface (164) aligned with the interface (154). An electrically conductive redistribution member (181) is electrically connected to the via (130) and extends over the repassivation member (162) into contact with the insulating layer (150).

Abstract: A semiconductor device includes a semiconductor die having a top side surface comprising a semiconductor material including circuitry therein having bond pads connected to nodes in the circuitry, a bottom side surface, and sidewall surfaces between the top side surface and the bottom side surface. A metal coating layer including a bottom side metal layer is over the bottom side surface that extends continuously to a sidewall metal layer on the sidewall surfaces. The sidewall metal layer defines a sidewall plane that is at an angle from 10° to 60° relative to a normal projected from a bottom plane defined by the bottom side metal layer.

Abstract: Packaged electronic devices and integrated circuits include a ceramic material or other thermally conductive, electrically insulating substrate with a patterned electrically conductive feature on a first side, and an electrically conductive layer on a second side. The IC further includes a semiconductor die mounted to the substrate, the semiconductor die including an electrically conductive contact structure, and an electronic component, with an electrically insulating lamination structure enclosing the semiconductor die, the frame and the thermal transfer structure. A redistribution layer with a conductive structure is electrically connected to the electrically conductive contact structure.

Abstract: The disclosed principles provide a stress buffer layer between an IC die and heat spreader used to dissipate heat from the die. The stress buffer layer comprises distributed pairs of conductive pads and a corresponding set of conductive posts formed on the conductive pads. In one embodiment, the stress buffer layer may comprise conductive pads laterally distributed over non-electrically conducting surfaces of an embedded IC die to thermally conduct heat from the IC die. In addition, such a stress buffer layer may comprise conductive posts laterally distributed and formed directly on each of the conductive pads. Each of the conductive posts thermally conduct heat from respective conductive pads. In addition, each conductive post may have a lateral width less than a lateral width of its corresponding conductive pad. A heat spreader is then formed over the conductive posts which thermally conducts heat from the conductive posts through the heat spreader.

Abstract: Packaged electronic devices and integrated circuits include a ceramic material or other thermally conductive, electrically insulating substrate with a patterned electrically conductive feature on a first side, and an electrically conductive layer on a second side. The IC further includes a semiconductor die mounted to the substrate, the semiconductor die including an electrically conductive contact structure, and an electronic component, with an electrically insulating lamination structure enclosing the semiconductor die, the frame and the thermal transfer structure. A redistribution layer with a conductive structure is electrically connected to the electrically conductive contact structure.

Abstract: An embedded die package includes a first die having an operating voltage between a first voltage potential and a second voltage potential that is less than the first voltage potential. A via, including a conductive material, is electrically connected to a bond pad on a surface of the first die, the via including at least one extension perpendicular to a plane along a length of the via. A redistribution layer (RDL) is electrically connected to the via, at an angle with respect to the via defining a space between the surface and a surface of the RDL. A build-up material is in the space.

Abstract: In one example, embedded die package, including a layer having an exposed boundary, wherein at least a portion of the exposed boundary comprises organic material. The package also includes at least one integrated circuit die positioned in the layer and within the exposed boundary. The package also includes a dielectric material positioned in the layer and between the at least one integrated circuit and structure adjacent the at least one integrated circuit.

Abstract: In some examples, a wafer chip scale package (WCSP) comprises a die; multiple electrically conductive terminals coupled to a first surface of the die; and a metal covering abutting five surfaces of the die besides the first surface, each of the five surfaces of the die lying in a different plane.

Abstract: An electronic device (100) includes a substrate (110) and an integrated circuit (120) provided on the substrate (110) having a surface facing away from the substrate (110). An insulating layer (150) extends over the substrate (110) and around the integrated circuit (120) to define an interface (154) between the insulating layer (150) and the integrated circuit (120). An electrically conductive via (130) is provided on the surface of the integrated circuit (120). An insulating material (140) extends over the via (130) and includes an opening (142) exposing a portion of the via (130). A repassivation member (162) extends over the insulating layer (150) and has a surface (164) aligned with the interface (154). An electrically conductive redistribution member (181) is electrically connected to the via (130) and extends over the repassivation member (162) into contact with the insulating layer (150).

Abstract: The disclosed principles provide a stress buffer layer between an IC die and heat spreader used to dissipate heat from the die. The stress buffer layer comprises distributed pairs of conductive pads and a corresponding set of conductive posts formed on the conductive pads. In one embodiment, the stress buffer layer may comprise conductive pads laterally distributed over non-electrically conducting surfaces of an embedded IC die to thermally conduct heat from the IC die. In addition, such a stress buffer layer may comprise conductive posts laterally distributed and formed directly on each of the conductive pads. Each of the conductive posts thermally conduct heat from respective conductive pads. In addition, each conductive post may have a lateral width less than a lateral width of its corresponding conductive pad. A heat spreader is then formed over the conductive posts which thermally conducts heat from the conductive posts through the heat spreader.

Abstract: Packaged electronic devices and integrated circuits include a ceramic material or other thermally conductive, electrically insulating substrate with a patterned electrically conductive feature on a first side, and an electrically conductive layer on a second side. The IC further includes a semiconductor die mounted to the substrate, the semiconductor die including an electrically conductive contact structure, and an electronic component, with an electrically insulating lamination structure enclosing the semiconductor die, the frame and the thermal transfer structure. A redistribution layer with a conductive structure is electrically connected to the electrically conductive contact structure.

Abstract: The disclosed principles provide a stress buffer layer between an IC die and heat spreader used to dissipate heat from the die. The stress buffer layer comprises distributed pairs of conductive pads and a corresponding set of conductive posts formed on the conductive pads. In one embodiment, the stress buffer layer may comprise conductive pads laterally distributed over non-electrically conducting surfaces of an embedded IC die to thermally conduct heat from the IC die. In addition, such a stress buffer layer may comprise conductive posts laterally distributed and formed directly on each of the conductive pads. Each of the conductive posts thermally conduct heat from respective conductive pads. In addition, each conductive post may have a lateral width less than a lateral width of its corresponding conductive pad. A heat spreader is then formed over the conductive posts which thermally conducts heat from the conductive posts through the heat spreader.

Abstract: The disclosed principles provide a stress buffer layer between an IC die and heat spreader used to dissipate heat from the die. The stress buffer layer comprises distributed pairs of conductive pads and a corresponding set of conductive posts formed on the conductive pads. In one embodiment, the stress buffer layer may comprise conductive pads laterally distributed over non-electrically conducting surfaces of an embedded IC die to thermally conduct heat from the IC die. In addition, such a stress buffer layer may comprise conductive posts laterally distributed and formed directly on each of the conductive pads. Each of the conductive posts thermally conduct heat from respective conductive pads. In addition, each conductive post may have a lateral width less than a lateral width of its corresponding conductive pad. A heat spreader is then formed over the conductive posts which thermally conducts heat from the conductive posts through the heat spreader.

Abstract: An embedded die package includes a first die having an operating voltage between a first voltage potential and a second voltage potential that is less than the first voltage potential. A via, including a conductive material, is electrically connected to a bond pad on a surface of the first die, the via including at least one extension perpendicular to a plane along a length of the via. A redistribution layer (RDL) is electrically connected to the via, at an angle with respect to the via defining a space between the surface and a surface of the RDL. A build-up material is in the space.

Abstract: Embodiments of the invention provide a method for forming a dual sided embedded die system. The method begins with starting material including a top surface and a bottom surface, a plurality of vias, a plurality of plated metal posts, die pads, and stiffeners. The surface are planarized to expose the included metal which is than selectively etching from die attach pad DAP areas to form cavities. Create a stiffener by using photo resist patterning and plating. Apply tacky tape. Attach a die. Laminate and grind. Remove tacky tape. Form redistribution layers RDLs and a solder mask. Mounting Surface Mount Devices.

Abstract: A method for fabricating packaged semiconductor devices in panel format. A flat panel sheet dimensioned for a set of contiguous chips includes a stiff substrate of an insulating plate, and a tape having a surface layer of a first adhesive releasable at elevated temperatures, a core base film, and a bottom layer with a second adhesive attached to the substrate. Attaching a set onto the first adhesive layer, the chip terminals having terminals with metal bumps facing away from the first adhesive layer. Laminating low CTE insulating material to fill gaps between the bumps and to form an insulating frame surrounding the set. Grinding lamination material to expose the bumps. Plasma-cleaning assembly, sputtering uniform metal layer across assembly, optionally plating metal layer, and patterning metal layer to form rerouting traces and extended contact pads.

Abstract: Embodiments of the invention provide a method for forming a dual sided embedded die system. The method begins with starting material including a top surface and a bottom surface, a plurality of vias, a plurality of plated metal posts, die pads, and stiffeners. The surface are planarized to expose the included metal which is than selectively etching from die attach pad DAP areas to form cavities. Create a stiffener by using photo resist patterning and plating. Apply tacky tape. Attach a die. Laminate and grind. Remove tacky tape. Form redistribution layers RDLs and a solder mask. Mounting Surface Mount Devices.