Abstract:
A conductive particle 8a comprising a core particle 11, a palladium layer 12 coating the core particle 11 and having a thickness of 200 Å or larger, and an insulating particle 1 arranged on the surface of the palladium layer 12 and having a particle diameter larger than the thickness of the palladium layer 12.
Abstract:
It is an object of the present invention to provide a coated conductive powder particularly useful as the conductive filler of an anisotropic conductive adhesive used for electrically interconnecting circuit boards, circuit parts, and the like, and a conductive adhesive that can provide connection with high electrical reliability even for the connection of the electrodes of miniaturized electronic parts, such as IC chips, and circuit boards. The coated conductive powder of the present invention is a coated conductive powder obtained by coating the surfaces of conductive particles with an insulating substance, wherein the insulating substance is a powdery, thermally latent curing agent. Also, in the present invention, the particle surfaces of the coated conductive powder are further coated with insulating inorganic fine particles.
Abstract:
The conductive particle of the invention each comprises a conductive nucleus particle and an insulating coating containing an organic high molecular compound on the surface of the nucleus particle, and the coverage factor as defined by the following formula (1) is in the range of 20-40%. Coverage factor ( % ) = ( Area of sections on nucleus particle surface covered with insulating coating ) ( Total surface area of nucleus particle ) × 100 ( 1 )
Abstract:
A circuit member connection structure 10 according to the invention is provided with circuit members 20,30 having a plurality of circuit electrodes 22,32 formed on the main surfaces 21a,31a of circuit boards 21,31. A circuit connecting member 60 which connects together the circuit members 20,30 with the circuit electrodes 22,32 opposing each other is comprising a cured circuit connecting material of the invention. The circuit connecting material of the invention comprises an adhesive composition and covered particles 50 comprising conductive particles 51 with portions of their surfaces 51a covered by insulating fine particles 52, wherein the mass of the insulating fine particles 52 constitutes 2/1000 to 26/1000 of the mass of the conductive particles 51.
Abstract:
Microscopic particle decentralized solution having microscopic particles with different diameters are decentralized, wherein: the microscopic particle decentralized solution has two peaks in a granularity distribution, at a large diameter and a small diameter; and microscopic particle mixtures satisfying the following relationships are decentralized in the solution; R>r and n>3.84×(R/r)3×N, where R is a large particle diameter, r is a small particle diameter, N is the number of large particles, and n is the number of small particle.
Abstract:
A light source module includes a mounting substrate including at least two exposed metal lines, a light-emitting diode (LED) including two electrodes disposed corresponding to the at least two exposed metal lines, and an anisotropic conductive film (ACF) provided on the mounting substrate, the ACF electrically connecting the at least two exposed metal lines to the two electrodes, wherein the ACF comprises an insulation body, and a plurality of conductive particles dispersed in the insulation body and insulated from each other, and an insulation of the conductive particles disposed between the two exposed metal lines and the two electrodes of the LED is prevented in at least a first direction.
Abstract:
A method of manufacturing a metal nanoparticle includes coupling a metal ion to an organic ligand having a weight-average molecular weight of about 10,000 to about 1,500,000. The method further includes reducing the metal ion coupled to the organic ligand to form a metal nanoparticle having a skin layer.
Abstract:
Light-emitting diode (LED) packages with improved heat transfer paths for LED dies encased therein when compared to conventional LED packages are provided. For some embodiments, the LED package includes a ceramic substrate having a top cavity with one or more LED dies disposed within and having a bottom cavity for receiving a metallic insert to dissipate heat away from the LED dies. For other embodiments, an LED package is provided that includes a ceramic substrate having a heat spreader coupled to thermal vias filled with a highly thermally conductive composite.
Abstract:
Conductive patterns and methods of using and printing such conductive patterns are disclosed. In certain examples, the conductive patterns may be produced by disposing a conductive material between supports on a substrate. The supports may be removed to provide conductive patterns having a desired length and/or geometry.
Abstract:
Particles and particle films are provided. In certain examples, particles produced from a single phase process may be used to provide industrial scale synthesis of particles for use in devices such as printed wiring boards.