Abstract: A vinyl-containing copolymer is copolymerized from (a) first compound, (b) second compound, and (c) third compound. (a) First compound is an aromatic compound having a single vinyl group. (b) Second compound is polybutadiene or polybutadiene-styrene having side vinyl groups. (c) Third compound is an acrylate compound. The vinyl-containing copolymer includes 0.003 mol/g to 0.010 mol/g of benzene ring, 0.0005 mol/g to 0.008 mol/g of vinyl group, and 1.2*10?5 mol/g to 2.4*10?4 mol/g of ester group.

Abstract: A biodegradable polyester is provided. The biodegradable polyester is a transesterification or esterification reaction product of a reactant (a) and a reactant (b). The reactant (a) is a modified linear saccharide oligomer. The reactant (b) is a polyester, or the reactant (b) includes a dicarboxylic acid and a diol. The modified saccharide oligomer is a reaction product of a saccharide oligomer and a modifier.

Abstract: An oligomer includes a repeating unit and a repeating unit or a combination thereof. The repeating number of the repeating unit (a) and the repeating number of the repeating unit (b1), (b2), or a combination thereof have a ratio of 1:1 to 20:1. Each Q is independently substituted or unsubstituted aliphatic group, cycloaliphatic group, aromatic group, or siloxane group. X can be and Y can be or a combination thereof, and Z can be or a combination thereof.

Abstract: A biodegradable material and a method for preparing a biodegradable material are provided. The biodegradable material includes a continuous phase and a dispersed phase. The continuous phase includes a polyester, and the dispersed phase includes a modified saccharide oligomer. In particular, the weight ratio of the modified saccharide oligomer to the polyester is from 3:97 to 30:70. The dispersed phase has a maximum diameter of 100 nm to 900 nm.

Abstract: A composition and a material prepared from the composition are provided.

Abstract: A biodegradable polyester is provided. The biodegradable polyester is a transesterification or esterification reaction product of a reactant (a) and a reactant (b). The reactant (a) is a modified linear saccharide oligomer. The reactant (b) is a polyester, or the reactant (b) includes a dicarboxylic acid and a diol. The modified saccharide oligomer is a reaction product of a saccharide oligomer and a modifier.

Abstract: A modified metal nanoplate and a conductive paste including the same are provided. The modified metal nanoplate includes a metal nanoplate, a first protecting agent, and a second protecting agent. The metal nanoplate has an average width of 0.3-20 ?m and an average thickness of 10-35 nm. The first protecting agent is disposed on a surface of the metal nanoplate and includes an oxygen-containing polymer. The second protecting agent is disposed on the surface of the metal nanoplate and includes a C6-C12 alkylamine.

Abstract: A modified metal nanoplate and a conductive paste including the same are provided. The modified metal nanoplate includes a metal nanoplate, a first protecting agent, and a second protecting agent. The metal nanoplate has an average width of 0.3-20 ?m and an average thickness of 10-35 nm. The first protecting agent is disposed on a surface of the metal nanoplate and includes an oxygen-containing polymer. The second protecting agent is disposed on the surface of the metal nanoplate and includes a C6-C12 alkylamine.

Abstract: The disclosed is a transparent conductive film and method for manufacturing the same. First, a substrate is provided. Subsequently, an inorganic layer composed of nano-inorganic compound is formed overlying the substrate. A carbon nanotube dispersion is then coated on the inorganic layer and dried to form a carbon nanotube conductive layer.

Abstract: Disclosed is a method of transferring a carbon conductive film, including: providing a first substrate, and forming an inorganic oxide layer on a surface of the first substrate, wherein the inorganic oxide layer has a total surface energy of 30 mJ/m2 to 75 mJ/m2, and a dispersive surface energy to the total surface energy ratio of 0.4 to 0.8. A carbon dispersion is coated on the inorganic oxide layer, and then dried to form a carbon conductive film on the inorganic oxide layer. The carbon conductive film is dipped into a solvent to separate the carbon conductive film and the inorganic oxide layer. The separated carbon conductive film is attached to a second substrate, thereby transferring the carbon conductive film onto the second substrate.

Abstract: Disclosed is a transparent conductive film including a substrate, and a conductive composite on the substrate, wherein the conductive composite includes conductive carbon material and a non-carbon inorganic material having a surface modified by an electron-withdrawing group, and the non-carbon inorganic material contacts the conductive carbon material. Furthermore, the disclosed provides a method of manufacturing the transparent conductive film.

Abstract: A patterning method for a carbon-based substrate is provided. The patterning method for the carbon-based substrate includes the following steps. The carbon-based substrate is provided. An atmospheric pressure plasma is produced from a plasma gas under an open air environment. The plasma gas includes oxygen. The carbon-based substrate is etched by the atmospheric pressure plasma.

Abstract: The disclosed is a transparent conductive film and method for manufacturing the same. First, a substrate is provided. Subsequently, an inorganic layer composed of nano-inorganic compound is formed overlying the substrate. A carbon nanotube dispersion is then coated on the inorganic layer and dried to form a carbon nanotube conductive layer.