Abstract:
A conductive film forming composition includes a fluorine atom-containing migration inhibitor and a metal particle, with the migration inhibitor including at least one selected from the group consisting of compounds represented by General Formulae (1) to (5), (22) and (23) as well as compounds having a group of General Formula (24) and a group of General Formula (25). The conductive film forming composition makes it possible to form a conductive film excellent in conductive characteristics and ion migration inhibiting function.
Abstract:
The invention relates to a powdery composition for use in the layer by layer manufacturing of three-dimensional molded bodies. The composition comprises at least one powder made of an aliphatic thermoplastic polyurethane (TPU) and is characterized in that the TPU powder has a melting temperature of less than 135° C. and a melting viscosity at 150° C. of at most 800 Pa·s.
Abstract:
Provided is a resin material having non-ohmic properties which has favorable characteristics as a varistor and has a high degree of molding freedom and impact resistance. A resin material 10 comprises: an insulating matrix 11 made of a first resin material; an island-form conductive dispersed phase 12 made of a conductive second resin material which is incompatible with the first resin material and is more wettable to a microvaristor 13 described later than the first resin material is, wherein the island-form conductive dispersed phase is dispersed in an island form in the matrix and has a volume ratio of less than 16% in the whole resin material; and a microvaristor 13 comprising ceramic particles having non-ohmic properties, wherein the ceramic particles are dispersed in the matrix 11 and electrically contacted with each other via the island-form conductive dispersed phase 12.
Abstract:
Provided are a metal nanoparticle composite which exhibits excellent stability over time and retention stability and is useful as a raw material for a metal nanoparticle-dispersed film, a method for producing the composite, a metal nanoparticle dispersion liquid, a composition for forming a metal nanoparticle-dispersed film, and a metal nanoparticle-dispersed film. Disclosed is a metal nanoparticle composite comprising (A) a star-shaped polymer having a central core and arms bonded to the central core, the arms comprising a repeating unit represented by the following formula (1) and a repeating unit represented by the following formula (2); and (B) metal nanoparticles supported thereon: wherein in the formula (1), R1 represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and in the formula (2), R2 represents a methyl group or an ethyl group; and k represents an integer from 1 to 10.
Abstract:
The embodiments of the present disclosure relate to the field of display technologies and provide a conductive adhesive composition, a method for producing the same, a sealant and a display panel, so as to improve the dispersion evenness of conductive particles in the adhesive and ensure excellent conductivity of the conductive adhesive composition, as well as avoid influencing the normal throughput of the adhesive during coating when the doping percentage of conductive particles is high. The conductive adhesive composition comprises: a primary adhesive material; and carrier granules dispersed in the primary adhesive material and having conductive particles adsorbed thereon. The present disclosure is applicable to manufacture a conductive adhesive composition as well as a sealant and a display panel comprising the conductive adhesive composition.
Abstract:
Provided are a nanostructure and an optical device including the nanostructure. The nanostructure is formed on a two-dimensional material layer such as graphene and includes nanopatterns having different shapes. The nanopattern may include a first nanopattern and a second nanopattern and may be spherical; cube-shaped; or poly-pyramid-shaped, including a triangular pyramid shape; or polygonal pillar-shaped.
Abstract:
An electrically conductive, single-sided tape includes a conductive adhesive layer and a non-conductive polymeric layer positioned adjacent the conductive adhesive layer. The conductive adhesive layer includes a conductive, porous substrate having a plurality of passageways and an adhesive material positioned within at least a portion of the passageways. Optionally, the adhesive material may include a plurality of conductive particles dispersed within the adhesive material.
Abstract:
The present invention relates to the design, construction and manufacture of a novel electrical high temperature heater having a polymer thick film conductor paste with which to form an electrode on resistive film.
Abstract:
It is provided a self-healing polymer network comprising transition metal thiolates, particularly thiolates of a transition metal that is able to self-assemble by metallophilic attractions, and more particularly Au(I), Ag(I), Cu(I) thiolates, or a mixture thereof, and, optionally, disulfide bonds, thiol and other thiolate groups. It is also provided several processes for the preparation of the self-healing polymer networks of the invention, as well as uses thereof.
Abstract:
Provided is a releasable adhesive system, for joining a first conductive surface and a second conductive surface. The releasable adhesive includes primary material and an embedded material. The primary material includes at least one molecule that is configured to be positioned parallel with at least one molecule of the first conductive surface or the second conductive surface. The embedded material is infused within or affixed to the primary material to form an adhesive structure. The releasable adhesive structure has a conductivity greater than a conductivity of the primary material alone. Also provided is a method for joining the first conductive surface to the second conductive surface using the adhesive structure.