Abstract:
A module substrate includes a plurality of electronic components mounted on at least one surface of a base substrate and a columnar terminal connection substrate connected to the one surface of the base substrate on which a plurality of the electronic components are mounted. The terminal connection substrate includes a plurality of conductor portions, at least one corner of the columnar terminal connection substrate is chamfered with a flat surface and/or curved surface, and the terminal connection substrate is connected at a side surface thereof contacting the chamfered surface, to the one surface of the base substrate.
Abstract:
A plurality of imaging modules, each including a solid-state imager mounted on an individual printed circuit board (PCB), is mounted in a reader, such as a bi-optical, dual window, point-of-transaction workstation, for capturing images along different fields of view of diverse targets useful for customer identification, customer payment validation, operator surveillance, and coded indicia. The imaging modules are individually mounted on a motherboard for individual installation at, and individual removal from, the reader.
Abstract:
Systems and methods relate to a semiconductor package comprising a first substrate or a 2D passive-on-glass (POG) structure with a passive component and a first set of one or more package pads formed on a face of a glass substrate. The semiconductor package also includes a second or laminate substrate with a second set of one or more package pads formed on a face of the second or laminate substrate. Solder balls are dropped, configured to contact the first set of one or more package pads with the second set of one or more package pads, wherein the first substrate or the 2D POG structure is placed face-up on the face of the second or laminate substrate. A printed circuit board (PCB) can be coupled to a bottom side of the second or laminate substrate.
Abstract:
An object of the present invention is to allow stress that may be applied to a semiconductor package to be suppressed, when the semiconductor package is mounted on a curved board. In a mount board 1, a semiconductor package 20 is mounted on a curved board 10 including a curved surface on at least a portion thereof. The curved board 10 includes a pedestal portion 13a disposed on a region of the curved surface portion where the semiconductor package 20 is mounted and having an upper surface thereof formed flat, and a plurality of pad portions 15a disposed on the flat surface of the pedestal portion 13a. The pedestal portion 13a is formed of an insulating material. The semiconductor package 20 is mounted on the pad portions 15a.
Abstract:
In a bond portion between an electrical conductive land and a connection terminal member, an intermetallic compound producing region in which at least a Cu—Sn-based, an M-Sn-based (M indicates Ni and/or Mn), and a Cu-M-Sn-based intermetallic compound are produced is arranged so as to be present at a connection terminal member side. In this intermetallic compound producing region, when a cross section of the bond portion is equally defined into 10 boxes in a longitudinal direction and a lateral direction to define 100 boxes in total, a ratio of the number of boxes in each of which at least two types of intermetallic compounds having different constituent elements are present to the total number of boxes other than boxes in each of which only a Sn-based metal component is present is about 70% or more.
Abstract:
Embodiments of the present invention provide an integrated module. The integrated module includes a printed circuit board PCB and a modular device, where the modular device is mounted on the PCB; a group of front pin pads is disposed at four edges of a front surface of the PCB and the front pin pads are located around a mounted position of the modular device; and a group of bottom pin pads is disposed at four edges of a bottom surface of the PCB. Positions where the front pin pads are disposed are symmetric to positions where the bottom pin pads are disposed; and network properties of the front pin pads and those of the bottom pin pads are the same.
Abstract:
Techniques provide improved thermal interface material application in an assembly associated with an integrated circuit package. For example, an apparatus comprises an integrated circuit module, a printed circuit board, and a heat transfer device. The integrated circuit module is mounted on a first surface of the printed circuit board. The printed circuit board has at least one thermal interface material application via formed therein in alignment with the integrated circuit module. The heat transfer device is mounted on a second surface of the printed circuit board and is thermally coupled to the integrated circuit module. The second surface of the printed circuit board is opposite to the first surface of the printed circuit board.
Abstract:
Disclosed herein is an embedded printed circuit board (PCB) including: a copper foil laminate; an internal electronic component inserted into the copper foil laminate; a first circuit pattern formed on a surface of the internal electronic component; and a second circuit pattern formed on the copper foil laminate. Since the surface space of the electronic component embedded in the substrate is utilized as a wiring space, a wiring design can be optimized, layers can be simplified, and an increase in the thickness of the substrate can be prevented.Also, malfunction of the embedded electronic component or a warping phenomenon of a PCB due to generated heat can be prevented.
Abstract:
A printed board assembly includes a printed board, an electrical component, a first interconnect that electrically connects the component to the printed board, and a second interconnect that electrically connects the first interconnect to the printed board. In some examples, the second interconnect extends between the first interconnect and the same electrical contact on the printed board to which the first interconnect is electrically connected. The first and second interconnects provide an at least partially redundant electrical pathway between the component and the printed board.
Abstract:
A method for manufacturing a multilayered printed circuit board including forming a first insulating resin substrate having a metal layer substantially corresponding to dimensions of a semiconductor device, forming a second insulating resin substrate, forming a recess extending to the metal layer of the first insulating resin substrate such that a surface of the metal layer is exposed, accommodating the semiconductor device in the recess such that the semiconductor device is mounted on the surface of the metal layer, and forming a resin insulating layer on the first insulating resin substrate such that the semiconductor device accommodated in the recess is covered.