Abstract:
An interconnect structure with stress buffering ability is disclosed, which comprises: a first surface, connected to a device selected form the group consisting of a substrate and an electronic device; a second surface, connected to a device selected form the group consisting of the substrate and the electronic device; a supporting part, sandwiched between and interconnecting the first and the second surfaces while enabling the areas of the two ends of the supporting part to be small than those of the first and the second surfaces in respective; and a buffer, arranged surrounding the supporting part for absorbing and buffering stresses.
Abstract:
A contact lead for engaging with an aperture lead of a circuit carrier, including a substrate contact portion electrically connected to a pad on a substrate a chip contact portion extending from the substrate contact portion and forming an angle with the substrate contact portion raising from the substrate. The contact lead chip contact portion may also be of a cylindrical shape vertically extending from the substrate contact portion. The present invention also provides a module including a printed circuit board having a plurality of pad thereon, the contact lead electrically connected to the pad, an integrated circuit carrier having a plurality of aperture leads, the aperture leads passing through the contact leads and contacting respectively thereof, and a housing structure for housing the module and providing access for the user to assemble the integrated circuit carrier.
Abstract:
A strain-resistant electrical connection and a method of making the same is provided. An antenna (36, 38) or other conductive lead is connected to a circuit (32) in a manner that makes the connection more resistant to mechanical stresses such as movement or rotation of the antenna (36, 38) or conductive lead relative to the circuit (32). The antenna (36, 38) or conductive lead is at least partially coiled to provide additional ability to withstand mechanical stresses. The antenna (36, 38) or conductive lead may be encase along with is connected circuit in an elastomeric material.
Abstract:
Disclosed is an LCD module and a liquid crystal imaging means using the same. The LCD module includes an LCD panel, a circuit board on which the LCD panel is mounted, and a plurality of pogo pins electrically connected to the circuit board. The liquid crystal imaging means include an LCD module having a circuit board, an LCD panel seated on the circuit board, and a plurality of pogo pins electrically connected to the circuit board; and a main board having a plurality of contact members corresponding to the pogo pins so that the pogo pins are connected to respective contact members.
Abstract:
An interconnect structure with stress buffering ability is disclosed, which comprises: a first surface, connected to a device selected form the group consisting of a substrate and an electronic device; a second surface, connected to a device selected form the group consisting of the substrate and the electronic device; a supporting part, sandwiched between and interconnecting the first and the second surfaces while enabling the areas of the two ends of the supporting part to be small than those of the first and the second surfaces in respective; and a buffer, arranged surrounding the supporting part for absorbing and buffering stresses.
Abstract:
A method for forming interconnections within a column grid array is provided. The method involves casting one or more columns with at least a compliant core material that increases flexibility between an electronic component and a printed wiring board by at least a factor of two over metallic-based solder columns, and forming the one or more columns to length for interconnecting between the electronic component and the printed wiring board. The method also involves forming a conductive material for the one or more columns to provide electrical interconnection between the electronic component and the printed wiring board.
Abstract:
A spring contact for establishing electrical contact between a lead element of an IC device and a substrate. The spring contact generally comprises a contact portion and a base portion. The contact portion, which generally comprises a coil-type compression spring, is configured to engage and resiliently bias against a lead element of the IC device. The spring contact is disposed in a mating aperture formed in the substrate. The base portion of the spring contact is configured to secure the spring contact within the mating aperture and to establish electrical contact with the substrate. A plurality of such spring contacts and mating apertures may be arranged on the substrate in an array corresponding to the pin-out of the IC device. A clamping element secures the IC device to the substrate and biases the IC device against the spring contacts.
Abstract:
An electronically functioning device module, an input device having the electronically functioning device module, and electronic equipment having the input device is provided. LEDs or a microphone device are mounted to a back surface of a seat member on which reversing plates are mounted.
Abstract:
A microelectronic spring contact for making electrical contact between a device and a mating substrate and method of making the same are disclosed. The spring contact has a compliant pad adhered to a substrate of the device and spaced apart from a terminal of the device. The compliant pad has a base adhered to the substrate, and side surfaces extending away from the substrate and tapering to a smaller end area distal from the substrate. A trace extends from the terminal of the device in a coil pattern over the compliant pad to its end area, forming a helix. At least a portion of the compliant pad end area is covered by the trace, and a portion of the trace that is over the compliant pad is supported by the compliant pad. In an alternative embodiment, the pad is removed to leave a freestanding helical contact.
Abstract:
Methods and apparatus provide for connecting an integrated circuit having a ball grid array to a printed circuit board having a matrix of contact pads for electrical connection to the ball grid array.