Abstract: The embodiments provide a carbon nanocapsule conjugated with at least one of the anticoagulants on the surface and an antithrombotic drug containing the anticoagulant-conjugated carbon nanocapsule as an active ingredient. The anticoagulant-conjugated carbon nanocapsule has less cytotoxicity and good biocompatibility. A method for preparing the anticoagulant-conjugated carbon nanocapsule is also provided.

Abstract: A solar energy module is provided and includes a substrate comprising at least one light diffusion layer and a plurality of light guiding layers adjacent to the light diffusion layer, and solar chips disposed on the lateral surfaces of the substrate. Solar light enters the substrate and is diffused by the light diffusion layer, and the diffused solar light is reflected by an interface of the light diffusion layer and the light guiding layer and is collected by the solar chips. A part of the solar light enters the light guiding layers and is reflected by the interface of the light guiding layers, and the reflected light is collected by the solar chips.

Abstract: A lube oil composition is provided. The lube oil composition includes a base oil and a carbon nanocapsule grafting with an alkyl group dispersed in the base oil, wherein the carbon nanocapsule is hollow or filled with metal, metal alloy, metal oxide, metal carbide, metal sulfide, metal nitride or metal boride.

Abstract: A method for preparing a pharmaceutical compound by way of magnetic carbon nanocapsules is disclosed. The method comprises steps of: (a) providing a magnetic carbon nanocapsule with C—(COOH)2 group, and Pt cations, to form a complex; (b) collecting the complex from the magnetic carbon nanocapsule; and (c) removing the Pt cations on the complex.

Abstract: Hetero-nanocapsule, which is a carbon nanocapule containing heteroatoms, comprises a closed graphite layer represented by a chemical formula C(D)x, wherein C is carbon atom exhibiting sp2 hybrid orbital, D is hetero-atom, such as B, N, P, or S atom, bonded to the carbon atom; and X is a molar equivalent ranging from 0.0001 to 0.1, based on the molar equivalent of carbon atom as 1. The hetero-nanocapsules may be hollow or filled with metal or metal compound.

Abstract: An organically functionalized carbon nanocapsule is provided. The organically-functionalized carbon nanocapsule includes a hollow carbon nanocapsule having a purity of at least more than 50% and a surface and at least one kind of organic functional groups bonded thereon and uniformly distributed over the surface thereof. The organically-functionalized carbon nanocapsule is of the following formula: F(-E)n, in which F is the carbon nanocapsule, E is the organic functional group, and n is the number of the organic functional group. By functionalization of high-purity carbon nanocapsules, the application thereof is expanded.

Abstract: A solar-powered lighting system includes a substrate, wherein at least one solar chip is disposed on one lateral side of the substrate, and at least one light source is disposed on one lateral side of the substrate. Solar light enters the substrate and propagates therein. Solar light energy is collected by the at least one solar chip which transforms the solar light energy into electrical power for the at least one light source to emit light to the substrate, before propagating therein and leaving the substrate.

Abstract: Disclosed is a powder coating method and paint thereof. First, a metal object is applied a voltage. Second, paint is rubbed to carry a static charge, wherein the static charge is opposite to the voltage applied to the metal object. The statically charged paint is then sprayed from a nozzle to the metal object to form a coating covering the metal object surface. The paint composition includes 90 to 99.9 parts by weight of a resin matrix, and 10 to 0.1 parts by weight of a carbon nanocapsule evenly dispersed in the resin matrix.

Abstract: Disclosed is a powder coating method and paint thereof. First, a metal object is applied a voltage. Second, paint is rubbed to carry a static charge, wherein the static charge is opposite to the voltage applied to the metal object. The statically charged paint is then sprayed from a nozzle to the metal object to form a coating covering the metal object surface. The paint composition includes 90 to 99.9 parts by weight of a resin matrix, and 10 to 0.1 parts by weight of a carbon nanocapsule evenly dispersed in the resin matrix.

Abstract: A carbon nanocapsule thin film and the preparation method thereof. A plurality of carbon nanocapsules are electroplated on a substrate, and the carbon nanocapsule thin film is thereby formed. By electroplating purified carbon nanocapsules on the substrate, the carbon nanocapsule thin film, electric- and heat-conductive, chemical-resistive, and anti-oxidizing, is formed.

Abstract: Disclosed is a powder coating method and paint thereof. First, a metal object is applied a voltage. Second, paint is rubbed to carry a static charge, wherein the static charge is opposite to the voltage applied to the metal object. The statically charged paint is then sprayed from a nozzle to the metal object to form a coating covering the metal object surface. The paint composition includes 90 to 99.9 parts by weight of a resin matrix, and 10 to 0.1 parts by weight of a carbon nanocapsule evenly dispersed in the resin matrix.

Abstract: A solar energy module is provided and includes a substrate comprising at least one light diffusion layer and a plurality of light guiding layers adjacent to the light diffusion layer, and solar chips disposed on the lateral surfaces of the substrate. Solar light enters the substrate and is diffused by the light diffusion layer, and the diffused solar light is reflected by an interface of the light diffusion layer and the light guiding layer and is collected by the solar chips. A part of the solar light enters the light guiding layers and is reflected by the interface of the light guiding layers, and the reflected light is collected by the solar chips.

Abstract: A solar-powered lighting system includes a substrate, wherein at least one solar chip is disposed on one lateral side of the substrate, and at least one light source is disposed on one lateral side of the substrate. Solar light enters the substrate and propagates therein. Solar light energy is collected by the at least one solar chip which transforms the solar light energy into electrical power for the at least one light source to emit light to the substrate, before propagating therein and leaving the substrate.

Abstract: Disclosed is a powder coating method and paint thereof. First, a metal object is applied a voltage. Second, paint is rubbed to carry a static charge, wherein the static charge is opposite to the voltage applied to the metal object. The statically charged paint is then sprayed from a nozzle to the metal object to form a coating covering the metal object surface. The paint composition includes 90 to 99.9 parts by weight of a resin matrix, and 10 to 0.1 parts by weight of a carbon nanocapsule evenly dispersed in the resin matrix.

Abstract: A heat transfer fluid with carbon nanocapsules. The heat transfer fluid comprises a fluid and a plurality of carbon nanocapsules, uniformly dispersed in the fluid, in an amount of 0.05 to 10 parts by weight, based on 100 parts by weight of the heat transfer fluid. Particularly, the carbon nanocapsules are modified to bond with at least one kind of functional group, improving dispersiblity in the fluid. Thus, since the carbon nanocapsules are apt to disperse in fluid and have superior thermal conductivity, the heat conduction capability of the heat transfer fluid therewith is enhanced.

Abstract: A polymer-chain-grafted carbon nanocapsule. The polymer-chain-grafted carbon nanocapsule includes a carbon nanocapsule and at least one kind of polymer chain grafted thereon, forming a polymer-chain-grafted carbon nanocapsule in which the carbon nanocapsule is the core thereof. The polymer-chain-grafted carbon nanocapsules have the following formula: F(-P)m, in which F is the carbon nanocapsule, P is the polymer chain, and m is the number of the polymer chain. By grafting high-purity carbon nanocapsules with polymer chains, the application thereof is expanded.

Abstract: A heat transfer fluid with carbon nanocapsules. The heat transfer fluid comprises a fluid and a plurality of carbon nanocapsules, uniformly dispersed in the fluid, in an amount of 0.05 to 10 parts by weight, based on 100 parts by weight of the heat transfer fluid. Particularly, the carbon nanocapsules are modified to bond with at least one kind of functional group, improving dispersiblity in the fluid. Thus, since the carbon nanocapsules are apt to disperse in fluid and have superior thermal conductivity, the heat conduction capability of the heat transfer fluid therewith is enhanced.

Abstract: A carbon nanocapsule-layered silicate hybrid is provided. Layered silicates (platelet-shaped) as a dispersant are mixed with carbon nanocapsules (sphere-shaped) by a physical process. The physically mixed hybrid exhibits a homogeneous dispersion phase due to the geometric shape inhomogeneity factor. Aggregation of carbon nanocapsules is thus avoided. The hybrid can be dispersed in a polar or non-polar solvent with a solid content of about 0.01-30 wt %.

Abstract: A lube oil composition is provided. The lube oil composition includes a base oil and a carbon nanocapsule grafting with an alkyl group dispersed in the base oil, wherein the carbon nanocapsule is hollow or filled with metal, metal alloy, metal oxide, metal carbide, metal sulfide, metal nitride or metal boride.

Abstract: A carbon nanocapsule-layered silicate hybrid is provided. Layered silicates (platelet-shaped) as a dispersant are mixed with carbon nanocapsules (sphere-shaped) by a physical process. The physically mixed hybrid exhibits a homogeneous dispersion phase due to the geometric shape inhomogeneity factor. Aggregation of carbon nanocapsules is thus avoided. The hybrid can be dispersed in a polar or non-polar solvent with a solid content of about 0.01-30 wt %.