Abstract:
A manufacturing method for manufacturing an electronic device is disclosed. Conductive elastomers comprising of various configurations and resistivity are coupled to contact pads of an electronic device. The conductive elastomers are also coupled to substrate contacts on a substrate, allowing the conductive elastomers to function as electrical connection from device to substrate as well as to embed one or more passive components at the contact pads of the electronic device.
Abstract:
A conductive rubber component 10 includes a laminate 9 in which conductive rubber layers 1 and insulating rubber layers 2 are laminated alternately in parallel, the conductive rubber layers 1 and the insulating rubber layers 2 are integrated at their boundaries by a cross-linking reaction, the conductive rubber layers 1 have a thickness of 0.01 mm to 1.0 mm and electrical conductivity such that the volume resistivity is 10−5 Ω·cm or more and 10 K Ω·cm or less, and the insulating rubber layers have a thickness of 0.01 mm to 1.0 mm and electrical insulation properties such that the volume resistivity is 1 M Ω·cm or more and 1016 Ω·cm or less. A solderable metal coating 3 is integrated with at least one surface of the laminate 9 that is perpendicular to the electrical conduction direction by the deposition of at least one selected from atoms and molecules. This conductive rubber component can have good compression load properties and good compression set properties, achieve a stable electric connection for a long period of time due to the good compression set properties, be soldered to a printed wiring board or the like because of the presence of the integrated metal coating, suppress the occurrence of burrs, reduce costs, and improve the production efficiency.
Abstract:
Provided is a circuit board device in which printed wiring boards 11, 12 are connected to each other electrically using a anisotropic conductive member 15 disposed between the printed wiring boards 11, 12. The anisotropic conductive member 15 comprises: an insulating elastic resin material 16; fine metal wires 17 having a middle portion embedded within the insulating elastic resin material 16 so as to connect corresponding connecting terminals of the printed wiring boards 11, 12; and resin layers 18 exhibiting a flexural rigidity greater than that of the insulating elastic resin material. An assembly composed of the printed wiring boards 11, 12 and anisotropic conductive member 15 is curved. The resin layers are shape-retaining resins for maintaining the curvature of respective ones of principal surfaces of the anisotropic conductive member 15 made to conform to curvature of the printed wiring boards 11, 12.
Abstract:
In an electronic component mounting structure, a semiconductor element (an electronic component) provided with an electrode pad and a board provide with an electrode pad corresponding to the electrode pad are connected via a conductive material portion. On a surface of the board, there is formed solder resist having an opening regulating an area of the electrode pad. The conductive material portion is formed to protrude from a surface of the solder resist. An elastic coefficient of the conductive material portion is lower than that of the solder resist. A solder bump and the conductive material portion are connected via a metal layer. The conductive material portion is formed to have an area larger than that of the opening of the solder resist. An edge of the conductive material portion is adhered to a portion of the surface of the solder resist. Thus, in a case of mounting an electronic component on a board by flip-chip connection, a reliability of connection can be secured.
Abstract:
A lamp unit is provided having polymer electrical conductors adhered to a non-conductive substrate in which adjacent conductors present a gap therebetween for securing a light radiating device within the gap the conductors of one embodiment having raised abutments formed in the conductors at the gap for capture of a light radiating device therebetween, such as an LED in said gap to hold the light device between the abutments to secure the light device in the lamp and power the light device.
Abstract:
A transceiver module is provided that includes an optical subassembly having an extension with traces corresponding to traces defined on an associated transceiver substrate. A connector element including a flexible, non-electrically conductive substrate within which is disposed an array of conductors is placed between overlapping portions of the extension and the transceiver substrate so that upper ends of some of the conductors contact the traces of the extension, while lower ends of those same conductors contact the corresponding traces of the transceiver substrate. In this way, the connector element provides electrical communication between the optical subassembly and transceiver substrate, while also accommodating misalignment that may be present, or develop, in the transceiver module components.
Abstract:
The invention provides for a printhead assembly that has a number of modular PCBs and a number of printhead integrated circuits (ICs). Each of the printhead IC's is respectively connected to one of the modular PCBs for operative control. Modular supports in the assembly define a raised portion and a recessed portion at an end thereof. Each PCB has electrical connecting strips which operatively overlie the respective recessed portions. At least one connecting member operatively connects respective PCBs to each other. Each connecting member has a series of parallel spaced conducting strips. The member is shaped and configured for fitment into a cavity defined by the raised and recessed portions of two abutting supports to connect the connecting strips of two PCBs via the conducting strips. The assembly also has a printer controller configured to synchronize operation of the respective PCBs during printing.
Abstract:
A device comprises a plurality of first electrodes which are arranged on a surface of a substrate at predetermined space, a component which has an elasticity and a longitudinal axis, a plurality of conductors which are applied to a surface of said component at predetermined space, and each of which are connected to a corresponding one of said first electrodes, and a plurality of second electrodes which are arranged on a surface of a electronic component at predetermined space, and each of which are connected to a corresponding one of said conductors.
Abstract:
A conductive elastomeric and mechanical pin and contact system for creation of a Elastromechanical Connector (1) that combines Mechanical Pins, an Insulator Array with Conductive Elastromeric Memory Material. This combination provides a low cost, high density, reliable, reusable electronic interconnect system. This system can be used in place of most connector systems in use today. It replaces any connector that uses pins and sockets and also supports the fine conductor pitch required in the semiconductor business like Ball Grid Array (BGA) Sockets and related devises. The inventive device includes mechanical pins (2), installed in an insulator (3), each mechanical pin is topped with conductive elastromeric compound (4). A mechanical pin is used for each connection point, the insulator positions the mechanical pins in an array pattern appropriate to the interconnection requirement. A conductive elastromeric compound is added to each metal pin to create the Z axis electrical coplanality to the mating unit. This connector will mate between printed circuit boards, packaged electronic assembles, BGAs or LGA type products, harnesses or cables without the need of solder or pins and sockets. Eliminating solder or pins and sockets reduces the pitch between connections. Mechanical pins are plated drawn, formed or machined conductive metal alloys. Insulator is molded or machined out of engineered plastic examples being, but not limited to, FR-4, Ultem®, Polyimide, Torlon®. Electrically conductive elastromeric compounds made up of flexible silicone and rubbers with conductive compounds added.
Abstract:
A conductive elastomeric and mechanical pin and contact system for creation of a Elastromechanical Connector (1) that combines Mechanical Pins, an Insulator Array with Conductive Elastromeric Memory Material. This combination provides a low cost, high density, reliable, reusable electronic interconnect system. This system can be used in place of most connector systems in use today. It replaces any connector that uses pins and sockets and also supports the fine conductor pitch required in the semiconductor business like Ball Grid Array (BGA) Sockets and related devises. The inventive device includes mechanical pins (2), installed in an insulator (3), each mechanical pin is topped with conductive elastromeric compound (4). A mechanical pin is used for each connection point, the insulator positions the mechanical pins in an array pattern appropriate to the interconnection requirement. A conductive elastromeric compound is added to each metal pin to create the Z axis electrical coplanality to the mating unit. This connector will mate between printed circuit boards, packaged electronic assembles, BGAs or LGA type products, harnesses or cables without the need of solder or pins and sockets. Eliminating solder or pins and sockets reduces the pitch between connections. Mechanical pins are plated drawn, formed or machined conductive metal alloys. Insulator is molded or machined out of engineered plastic examples being, but not limited to, FR-4, Ultem®, Polyimide, Torlon®. Electrically conductive elastromeric compounds made up of flexible silicone and rubbers with conductive compounds added.