Abstract:
Disclosed is a portable terminal, including a first circuit board coupled to a main body and having a first connection terminal mounted on a surface thereof; a second circuit board coupled to the main body so as to cover at least a portion of the first circuit board, having a first area where an intermediate connection terminal contacting the first connection terminal is mounted on a surface thereof, and a second area where a second connection terminal electrically connected to the intermediate connection terminal is mounted on a surface thereof; and an electronic component having at least a portion thereof contacted by the second connection terminal, and for being electrically connected to the first circuit board.
Abstract:
The present invention is directed to a process for printing conductors, insulators, dielectrics, phosphors, emitters, and other elements that may be for electronics and display applications. The present invention also relates to viscoelastic compositions used in this printing process. The present invention further includes devices made therefrom.
Abstract:
A method for manufacturing an integrated circuit is disclosed. One embodiment provides placing an elastic, anisotropically conductive material on top of a printed circuit board. An electronic component is placed over the elastic, anisotropically conductive material, fixing the electronic component on the printed circuit board.
Abstract:
A mounting structure of an electronic component includes: a bump electrode included in the electronic component, the bump electrode having an internal resin as a core and a conductive film covering a surface of the internal resin, and elastically deforming so as to follow a shape of at least one corner of a terminal so that the conductive film makes direct conductive contact with at least part of a top surface of the terminal and at least part of a surface along a thickness direction of the terminal; a substrate having the terminal and the electronic component that is mounted on the substrate; and a holding unit provided to the substrate and the electronic component so as to hold a state in which the bump electrode electrically deformed makes conductive contact with the terminal.
Abstract:
A compliant contact pin assembly and a contactor card system are provided. The compliant contact pin assembly includes a contact pin formed from a portion of a substrate with the contact pin compliantly held suspended within the substrate by a compliant coupling structure. The suspension within the substrate results in a compliant deflection orthogonal to the plane of the substrate. The contact pin assembly is formed by generally thinning the substrate around the contact pin location and then specifically thinning the substrate immediately around the contact pin location for forming a void. The contact pin is compliantly coupled, in one embodiment by compliant coupling material, and in another embodiment by compliantly flexible portions of the substrate.
Abstract:
Methods of forming a microelectronic structure are described. Embodiments of those methods include placing an anisotropic conductive layer comprising at least one compliant conductive sphere on at least one interconnect structure disposed on a first substrate, applying pressure to contact the compliant conductive spheres to the at least one interconnect structure, removing a portion of the anisotropic conductive layer to expose at least one of the compliant conductive spheres; and then attaching a second substrate to the anisotropic conductive layer.
Abstract:
In a semiconductor device (1), a package board (2) is provided in which a plurality of wiring layers are layered, a plurality of mounting pads (5) arranged in a matrix are provided to the uppermost wiring layer of the package board (2), and solder bumps (7) are connected to the mounting pads (5). A semiconductor chip (9) is mounted on the package board (2) via the solder bumps (7). The uppermost wiring layer of the package board (2) is formed from a resin material in which the Young's modulus is 1 GPa or lower when the temperature is 10 to 30° C., and the elongation at break is 50% or higher.
Abstract:
A compliant contact pin assembly method for making is provided. The compliant contact pin assembly includes a contact pin formed from a portion of a substrate with the contact pin compliantly held suspended within the substrate by a compliant coupling structure. The suspension within the substrate results in a compliant deflection orthogonal to the plane of the substrate. The contact pin assembly is formed by generally thinning the substrate around the contact pin location and then specifically thinning the substrate immediately around the contact pin location for forming a void. The contact pin is compliantly coupled, in one embodiment by compliant coupling material, and in another embodiment by compliantly flexible portions of the substrate.
Abstract:
A compliant contact pin assembly, a contactor card, a testing system and methods for making and testing are provided. A compliant contact pin assembly includes a contact pin formed from a portion of a substrate with the contact pin compliantly held suspended within the substrate by a compliant coupling structure. The suspension within the substrate results in a compliant deflection orthogonal to the plane of the substrate. The contact pin assembly is formed by generally thinning the substrate around the contact pin location and then specifically thinning the substrate immediately around the contact pin location for forming a void. The contact pin is compliantly coupled, in one embodiment by compliant coupling material, and in another embodiment by compliantly flexible portions of the substrate.
Abstract:
Formation of a plurality of conductive connectors of an integrated circuit package is described. The conductive connectors made with a conductive elastomer material and formed using an interposer that includes a plurality of the conductive connectors linked together.