Abstract:
An electronic device includes a chip component and an external terminal. The external terminal includes a terminal electrode connection part, a mounting connection part, and a support part. The terminal electrode connection part is arranged to face an end surface electrode part of a terminal electrode of the chip component. The mounting connection part is connectable to a mounting surface. The support part faces one side surface of an element body of the chip component closest to the mounting surface so as to support the one side surface spaced from the mounting surface. A bonding region and a non-bonding region are formed between the terminal electrode connection part of the external terminal and the end surface electrode part of the terminal electrode. The non-bonding region is formed from the terminal electrode connection part to the support part.
Abstract:
A main body of an electronic part is formed in a rectangular pillared shape having a first and a second axial end surface. A first electrode is formed on the first axial end surface electrically and mechanically connected to a first wiring pattern formed on a board surface of a printed board. A second electrode is formed on the second axial end surface, to which one end of a fuse terminal is electrically connected. The other end of the fuse terminal is connected to a second wiring pattern of the printed board or a wiring member which is formed as an independent member from the printed board. A cut-off portion is formed in a connecting portion of the fuse terminal.
Abstract:
A semiconductor module includes a copper connector jointing an electrode formed on a top surface of a bare-chip transistor and a wiring pattern out of plural wiring patterns via a solder. The copper connector includes an electrode jointing portion jointed to the electrode of the bare-chip transistor and a substrate jointing portion arranged to face the electrode-jointing portion and jointed to the wiring pattern. The width W1 of the electrode jointing portion in a direction perpendicular to one direction is smaller than the width W2 of the substrate jointing portion in the direction perpendicular to the one direction.
Abstract:
A printed circuit board assembly is disclosed, including a printed circuit board including at least one opening, and a system in package assembly, wherein the system in package assembly includes a system in package module and a lead frame bonded to the system in package module. The lead frame includes a plurality of pins. The system in package assembly is embedded into the opening of the printed circuit board.
Abstract:
Disclosed are a method, system, and/or apparatus to stack a processor power module on a populated printed circuit board. A stacked processor power module includes a bare printed circuit board comprising a top surface and a bottom surface. The stacked processor power module also includes a first pair of metal lead legs coupled to an upper region of the bottom surface of the bare printed circuit board and a second pair of metal lead legs coupled to a lower region of the bottom surface of the bare printed circuit board. An integrated circuit board assembly includes a populated printed circuit board having a mounting region upon which to stack the stacked processor power module above the mounting region of the populated printed circuit board by coupling the first pair of metal lead legs and the second pair of metal lead legs to the mounting region.
Abstract:
A printed circuit board assembly is disclosed, including a printed circuit board including at least one opening, and a system in package assembly, wherein the system in package assembly includes a system in package module and a lead frame bonded to the system in package module. The lead frame includes a plurality of pins. The system in package assembly is embedded into the opening of the printed circuit board
Abstract:
In a ceramic capacitor, first and second electrode terminals each include a bonded-to-substrate portion, a first bonded-to-electrode portion bonded to a first edge of one of first and second external electrodes, a second bonded-to-electrode portion bonded to a second edge of the one of first and second external electrodes and disposed at a distance from the first bonded-to-electrode portion in the first directions, and a connecting portion connecting the first and second bonded-to-electrode portions and the bonded-to-substrate portion. W1/W0 is about 0.3 or more, and h/L is about 0.1 or more.
Abstract:
The present invention relates generally to permanent interconnections between electronic devices, such as integrated circuit packages, chips, wafers and printed circuit boards or substrates, or similar electronic devices. More particularly it relates to high-density electronic devices. The invention describes means and methods that can be used to counteract the undesirable effects of thermal cycling and thermal fluctuations. The invention more specifically shows certain improvements related to its mother patent application, called Thermal Flex Contact Carrier (TFCC), where the improvements allow the height of the contact elements to be now not restricted anymore by the size of the spaces or distances between the contact pads of the devices to be attached together. Certain improvements to the carrier wafer are also shown.
Abstract:
A wiring substrate includes a silicon substrate, a through hole formed to penetrate the silicon substrate in a thickness direction, an insulating layer formed on both surfaces and side surfaces of the silicon substrate and an inner surface of the through hole, a penetration electrode formed in the through hole, a wiring layer formed on at least one surface of the silicon substrate and connected to the penetration electrode, and a metal wire terminal connected to the wiring layer and formed to extend from one surface of the silicon substrate to a side surface thereof. The metal wire terminal on the side surface of the electronic device is connected to the mounting substrate such that a substrate direction of the electronic device in which an electronic component is mounted on the wiring substrate intersects orthogonally with a substrate direction of the mounting substrate.
Abstract:
A capacitor device, which is mountable on a substrate, has an electrically conductive bottom lead frame with a bottom plate mountable substantially parallel to, and in contact with, the substrate and an electrically conductive top lead frame having a top plate spaced apart from the bottom plate and a first transition portion having a first end connected to the top plate and a second end, opposite the first end, electrically connectable to the substrate. Multilayer capacitors are mounted between the top plate and the bottom plate. The capacitors have opposed end terminations electrically connected to the top and bottom plates, such that internal electrode plates are substantially nonparallel to the substrate.