Abstract:
A semiconductor device comprising a substrate. An interconnect pattern is formed over the substrate, and the substrate has a first portion and a second portion to be superposed on the first portion. The first portion has edges as positioning references. The second portion has a shape to be superposed over the first portion except the edges.
Abstract:
A semiconductor device and a method of manufacturing the semiconductor device includes: a first step of interposing a thermosetting anisotropic conductive material 16 between a substrate 12 and a semiconductor chip 20; a second step in which pressure and heat are applied between the semiconductor chip 20 and the substrate 12, an interconnect pattern 10 and electrodes 22 are electrically connected, and the anisotropic conductive material 16 is spreading out beyond the semiconductor chip 20 and is cured in the region of contact with the semiconductor chip 20; and a third step in which the region of the anisotropic conductive material 16 other than the region of contact with the semiconductor chip 20 is heated.
Abstract:
An electronic device includes a semiconductor substrate in which an integrated circuit is formed; an insulating layer which is formed on the semiconductor substrate and includes an elastically deformable section; an electrode which is electrically connected with inside of the semiconductor substrate and is formed on the elastically deformable section; and a substrate on which an interconnect pattern is formed, the interconnect pattern facing the electrode and being electrically connected with the electrode. The elastically deformable section is elastically deformed in a manner to be depressed under the electrode, and presses the electrode against the interconnect pattern due to elasticity.
Abstract:
First and second electrodes and first and second electrical connection portions are overlapped and electrically connected. A first substrate includes: an attachment portion, a connection portion and an extension portion, the attachment portion being attached to the second substrate, the connection portion being connected to the attachment portion and positioned outside the second substrate, and the extension portion being extending from the connection portion along an edge of the second substrate without overlapping the second substrate. The first electrical connection sections are formed on the extension portion of the first substrate.
Abstract:
The semiconductor device comprises an insulating film in which penetrating holes are formed, a semiconductor chip having electrodes, a wiring pattern adhered by an adhesive over a region including penetrating holes on one side of the insulating film and electrically connected to the electrodes of the semiconductor chip, and external electrodes provided on the wiring pattern through the penetrating holes and projecting from the surface opposite to the surface of the substrate on which the wiring pattern is formed. Part of the adhesive is drawn in to be interposed between the penetrating holes and external electrodes.
Abstract:
A method of manufacturing a semiconductor device comprises a step of forming a through-hole in a semiconductor chip having an electrode and forming a conductive layer on a region comprising an inner side of the through-hole. An intermediate portion of the through-hole is formed to be larger than an edge portion thereof, and the conductive layer is formed by electroless plating.
Abstract:
An apparatus splices a web of paper being paid out from a one web roll and fed into a printing press to another web roll being rotated in a splicing position. The new web roll of any diameter is spaced a prescribed distance from the old web traveling along a predefined path into the press. A sensor positioning mechanism adjustably moves a photoelectric web roll speed sensor along two orthogonal axes to an optimum sensing position with respect to the new web roll regardless of its diameter. An electronic control circuit has an input connected to a speed sensor for the old web traveling along the predefined path, and another to the photoelectric speed sensor for the new web roll, for energizing a new web roll drive motor according to a departure of the peripheral speed of the new web roll from the running speed of the old web.
Abstract:
An interconnect substrate includes an upper substrate (30) on which an upper interconnect pattern (32) is formed, and a lower substrate (40) on which a lower interconnect pattern (42) is formed and to which the upper substrate (30) is adhered. The lower interconnect pattern (42) includes first lower land section (53) which are formed in the center portion of a first region (50) and are connected to the upper interconnect pattern (32), second lower land sections (64) which are formed in a second region (60) and are electrically connected to a second electronic chip, and lower connection sections (45) which run outside the center portion in the first region (50) than the center portion and connect the first lower land section (53) to the second lower land section (64).
Abstract:
A semiconductor device includes: a support member (20) on which a land (24) is formed; a semiconductor chip (10) having a bump for an electrode (12) that is disposed on the land (24), and to be bonded face-down to a support member (20); and resin (30) which is provided as an adhesive between the semiconductor chip (10) and the support member (20), which is allowed to contract on hardening, and which causes pressure-bonding between the land (24) and the bump (12) by the stress due to this hardening contraction. The stress therein is partially absorbed by elastic deformation of at least the support member (20).
Abstract:
A method of making semiconductor devices comprising the steps of: preparing non-defective individual film packages having good quality, wherein leads are formed and a semiconductor chip is mounted on each of the film packages; attaching each of the non-defective individual packages to each of mounting portions of a plate; and cutting the plate into separate pieces, each of the separated pieces corresponding to each of the mounting portions on which each of the non-defective individual film packages is mounted.