A semiconductor module includes a housing, a pin arranged in the housing and including a first contact region which has a press-fit connection, a semiconductor component arranged in the housing and electrically conductively connected to the pin, and a first substrate arranged in the housing and clamped in the housing via the pin by a non-positive locking connection, which, when formed, causes the press-fit connection to be deformed elastically and/or plastically with the first substrate. The first substrate has a first recess which is open and at least in part encompasses the pin in the first contact region. A metallic coating is applied to the first substrate at least in a region of the first recess so as to electrically conductively connect the first substrate to the semiconductor component, and a second substrate is in contact with the pin and connected within the housing in a non-releasable manner.

A method for manufacturing a circuit board with a heat dissipation structure comprises: providing at least one wiring base board, the wiring base board comprising a first conductor layer, an insulation layer, and an alloy layer which are stacked in order, wherein a solder paste layer is formed on a side of the alloy layer, a part of the alloy layer is exposed out of the solder paste layer to form a thermal conductive surface; providing a core layer; and pressing two wiring base boards on two opposite sides of the core layer to form a sealed heat dissipating chamber between the thermal conductive surfaces of the two wiring base boards. The present disclosure further provides a circuit board with a heat dissipation structure.

A cavity printed circuit board (PCB) that allows electronic components with different dimensions disposed therein is provided. A cavity with a desired dimension is formed in the cavity PCB where the electronic components may be mounted and soldered therein. The cavity formed in the cavity PCB may also provide additional flexibility regarding placements and locations where the electronic components may be disposed in the 3D vertical stacking and packaging of the IC devices so as to provide alternatives of using different types of wiring or interconnection structures or fine-pitch connection lines among the electronic components.

Provided is a current detection device including a first stacked board; a second stacked board provided on a first region on the first stacked board; a third stacked board provided on a second region on the first stacked board; a magnetic measurement element provided in a third region on the first stacked board, the magnetic element provided between the first region and the second region; and a first coil provided on the magnetic measurement element or below the magnetic measurement element.

A process of fabricating an electromagnetic circuit includes providing three laminate sheets, forming a first feature in a first laminate sheet of the three laminate sheets, and forming a second feature in a second laminate sheet of the three laminate sheets. The second feature is aligned with the first feature when aligning the second laminate sheet with the first laminate sheet. The process further includes stacking the three laminate sheets so that the first laminate sheet is positioned above and aligned with the second laminate sheet and the second laminate sheet is positioned above and aligned with the third laminate sheet. The first feature and the second feature define a contiguous element. The process further includes filling the contiguous element with an electrically conductive material to form an electrically continuous conductor.

A printed circuit board which improves the peel strength of a wiring pattern formed at a cavity bottom portion while enabling connection between an electronic component inside a cavity and a circuit outside the cavity to be performed at the cavity bottom portion, includes a cavity in a partial region of a multilayer substrate laminated with an insulating resin layer and an electrical conductor layer on a bottom layer of an insulating resin substrate. The cavity opens on a side of the insulating resin substrate, penetrates the insulating resin substrate, and includes a surface of the insulating resin layer as a bottom surface. The electrical conductor layer has a surface, the surface having a height equivalent to a height of the surface of the insulating resin layer and being embedded in the insulating resin layer in a manner to form a portion of the bottom surface.

Methods of manufacture are described. A method includes forming a first cavity in a substrate and placing a backplane in the first cavity. At least one layer of dielectric material is formed over the substrate and the backplane. A second cavity is formed in the at least one layer of the dielectric material to expose at least a portion of a surface of the backplane. A heat conductive material is placed in the second cavity and in contact with the at least the portion of the surface of the backplane.

A component carrier includes a layer stack with at least one electrically insulating layer structure and/or at least one electrically conductive layer structure, at least one opening in the layer stack, a first curable dielectric element arranged at least partially on the opening, and a second curable dielectric element arranged adjacent to the first curable dielectric element, so that there is an interface region in between. A part of the first curable dielectric element extends partially into the opening.

A substrate having an electronic component embedded therein includes first and second insulating layers including first and second cavities, respectively, first and second electronic components disposed within the first and second cavities, respectively, a first adhesive layer disposed between the first and second insulating layers, and a connection member penetrating through at least a portion of the first adhesive layer. One end and the other end of the connection member are connected to the first and second electronic components, respectively.

A circuit board includes a core portion including a first cavity formed in one surface, and a second cavity formed in the other surface opposing the one surface and having a diameter different from a diameter of the first cavity; a first metal layer disposed on the one surface of the core portion; a second metal layer buried in the core portion; and a third metal layer disposed on the other surface of the core portion, wherein each of the first and second cavities of the core portion exposes at least a portion of the second metal layer.