Abstract:
A sliding engine component may include a plastic polymer-based composite layer on a substrate. The composite layer may include a matrix of plastic polymer-based material, and functionalised graphene nano platelets distributed throughout the matrix
Abstract:
A liquid polymerizable composition including an amide or a thioamide derivative monomer with mineral nanoparticles homogeneously dispersed therein, as well as its use for the preparation of a transparent polymeric material having a high refractive index and its use in the optical field.
Abstract:
The present invention relates to a conductive composition containing a conductive metal powder and an epoxy resin component in which the conductive metal powder contains a metal flake and the epoxy resin component contains a polyfunctional epoxy resin having three or more epoxy groups.
Abstract:
To provide a conductive pattern formation method capable of improving conductivity of a conductive pattern and a composition for forming a conductive pattern by means of photo irradiation or microwave heating. A composition for forming a conductive pattern that contains copper particles each having a copper oxide thin film formed on the entire or a part of a surface thereof, plate-like silver particles each being 10 to 200 nm thickness, and a binder resin is prepared. The composition for forming a conductive pattern is printed in a pattern having a desired shape on a substrate. Photo irradiation or microwave heating is applied to the printed pattern to thereby produce a copper/silver sintered body, to form a conductive film.
Abstract:
Provided are carbon fibers which have a thicker single fiber fineness of the polyacrylonitrile-based precursor fiber bundles and lower production costs, and which have excellent mechanical properties. Also provided are: carbon fiber bundles having a single fiber fineness of 0.8-2.1 dtex, a strand strength of 4.9 GPa or greater, and a strand elastic modulus of 200 GPa or greater; carbon fiber bundles having a single fiber fineness of 0.8-2.5 dtex, a strand strength of 3.0 GPa or greater, and a strand elastic modulus of 240 GPa or greater; and an optimal method for producing said carbon fiber bundles. carbon fiber bundles having a single fiber fineness of 0.8-2.5 dtex, a strand strength of 3.0 GPa or greater, and a strand elastic modulus of 240 GPa or greater; and an optimal method for producing said carbon fiber bundles.
Abstract:
Provided are carbon fibers which have a thicker single fiber fineness of the polyacrylonitrile-based precursor fiber bundles and lower production costs, and which have excellent mechanical properties. Also provided are: carbon fiber bundles having a single fiber fineness of 0.8-2.1 dtex, a strand strength of 4.9 GPa or greater, and a strand elastic modulus of 200 GPa or greater; carbon fiber bundles having a single fiber fineness of 0.8-2.5 dtex, a strand strength of 3.0 GPa or greater, and a strand elastic modulus of 240 GPa or greater; and an optimal method for producing said carbon fiber bundles. carbon fiber bundles having a single fiber fineness of 0.8-2.5 dtex, a strand strength of 3.0 GPa or greater, and a strand elastic modulus of 240 GPa or greater; and an optimal method for producing said carbon fiber bundles.
Abstract:
[Problem to be Solved] It is an object of the present invention to provide a novel vinylidene chloride-based resin composition enabling continuous extrusion molding over a long period of time and having excellent thermal stability, and a manufacturing method thereof, or the like. It is another object of the present invention to provide a vinylidene chloride-based resin molded product or the like having not only excellent thermal stability and productivity but also excellent barrier property and transparency. [Solution] A vinylidene chloride-based resin composition comprises: particles (A) which are solid at room temperature; a plasticizer (B) which is liquid at room temperature; and a vinylidene chloride-based copolymer, wherein, in an area of 0.4 cm 2 observed with a transmission optical microscope, a ratio of the particles (A) which have a projected area of 1000 µm 2 or more and 3000 µm 2 or less to the particles (A) which have a projected area of 10 µm 2 or more and 3000 µm 2 or less is 20% or less; and a ratio of the particles (A) which have a projected area of 10 µm 2 or more and less than 100 µm 2 to the particles (A) which have a projected area of 10 µm 2 or more and 3000 µm 2 or less is 40% or more.
Abstract:
To provide a conductive pattern formation method capable of improving conductivity of a conductive pattern and a composition for forming a conductive pattern by means of photo irradiation or microwave heating. A composition for forming a conductive pattern that contains copper particles each having a copper oxide thin film formed on the entire or a part of a surface thereof, plate-like silver particles each being 10 to 200 nm thickness, and a binder resin is prepared. The composition for forming a conductive pattern is printed in a pattern having a desired shape on a substrate. Photo irradiation or microwave heating is applied to the printed pattern to thereby produce a copper/silver sintered body, to form a conductive film.
Abstract:
[Problem to be Solved] It is an object of the present invention to provide a novel vinylidene chloride-based resin composition enabling continuous extrusion molding over a long period of time and having excellent thermal stability, and a manufacturing method thereof, or the like. It is another object of the present invention to provide a vinylidene chloride-based resin molded product or the like having not only excellent thermal stability and productivity but also excellent barrier property and transparency. [Solution] A vinylidene chloride-based resin composition comprises: particles (A) which are solid at room temperature; a plasticizer (B) which is liquid at room temperature; and a vinylidene chloride-based copolymer, wherein, in an area of 0.4 cm 2 observed with a transmission optical microscope, a ratio of the particles (A) which have a projected area of 1000 µm 2 or more and 3000 µm 2 or less to the particles (A) which have a projected area of 10 µm 2 or more and 3000 µm 2 or less is 20% or less; and a ratio of the particles (A) which have a projected area of 10 µm 2 or more and less than 100 µm 2 to the particles (A) which have a projected area of 10 µm 2 or more and 3000 µm 2 or less is 40% or more.