Abstract: A fireproof material incorporating aerogel with an organic foam material and a method for making the same are provided. The method is carried out as follows: A. a mixed solution of a precursor and an organic solvent is added with an acid catalyst and becomes an anhydrous aerogel solution through hydrolysis; B. the anhydrous aerogel solution is added with an aqueous alkali catalyst solution and forms an aerogel solution through condensation; C. an organic foam material is impregnated with the aerogel solution such that aerogel is generated by gelation and is incorporated with the organic foam material, forming a three-dimensional reticular structure; and D. the organic foam material incorporated with the aerogel is dried and then shaped to produce a fireproof material. The fireproof material is highly proof against fire and can pass the limiting oxygen index test.

Abstract: A fireproof material incorporating aerogel with a wood material and a method for making the same are provided. The method is carried out as follows: A. a mixed solution of a precursor and an organic solvent is added with an acid catalyst and becomes an aerogel solution through hydrolysis; B. the aerogel solution is added with an aqueous alkali catalyst solution and forms an aqueous aerogel solution through condensation; C. a wood material is impregnated with the aqueous aerogel solution such that aerogel generated by gelation covers the wood material; and D. the wood material is dried and then shaped to produce a fireproof material. The fireproof material is highly proof against fire and can pass the limiting oxygen index test.

Abstract: A fireproof material incorporating aerogel with an organic foam material and a method for making the same are provided. The method is carried out as follows: A. a mixed solution of a precursor and an organic solvent is added with an acid catalyst and becomes an anhydrous aerogel solution through hydrolysis; B. the anhydrous aerogel solution is added with an aqueous alkali catalyst solution and forms an aerogel solution through condensation; C. an organic foam material is impregnated with the aerogel solution such that aerogel is generated by gelation and is incorporated with the organic foam material, forming a three-dimensional reticular structure; and D. the organic foam material incorporated with the aerogel is dried and then shaped to produce a fireproof material. The fireproof material is highly proof against fire and can pass the limiting oxygen index test.

Abstract: A fireproof material incorporating aerogel with a wood material and a method for making the same are provided. The method is carried out as follows: A. a mixed solution of a precursor and an organic solvent is added with an acid catalyst and becomes an aerogel solution through hydrolysis; B. the aerogel solution is added with an aqueous alkali catalyst solution and forms an aqueous aerogel solution through condensation; C. a wood material is impregnated with the aqueous aerogel solution such that aerogel generated by gelation covers the wood material; and D. the wood material is dried and then shaped to produce a fireproof material. The fireproof material is highly proof against fire and can pass the limiting oxygen index test.

Abstract: An aerogel particle is produced by following processes. A mixing process: an alkoxysilane compound is mixed with an organic solvent to form a first mixed solution. A hydrolysis process: an acid catalyst is added into the first mixed solution to perform a hydrolysis reaction, thereby obtaining a sol. A condensation process: an alkali catalyst is added into the sol to perform a condensation reaction, and a hydrophobic dispersion solvent is added and stirred during the condensation process, thereby subjecting sol to be gelled when it is stirred, further producing the aerogel particle with a uniform structure.

Abstract: The present invention relates to a method of preparing high crystalline polythiophene nanowire used for organic solar panels, including the following steps: A. a 0.001-40 wt % polythiophene solution is prepared; B. a 0.01-10 wt % carbon nanomaterial suspension is prepared and a 0.001-5 wt % dispersant is added to the suspension to generate a carbon nanomaterial dispersion; C. The foregoing carbon nanomaterial dispersion is added to the polythiophene solution and the resulting mixture is let stand under atmospheric pressure at ?10˜45° C. for 20˜400 min so that polythiophene molecules are able to be adsorbed and stacked up on the surface of carbon nanomaterials to generate polythiophene nanowires. Owing to high alignment order and high crystallinity, the polythiophene nanowire is helpful for elevating light conversion efficiency of organic solar panels.

Abstract: An aerogel particle is produced by following processes. A mixing process: an alkoxysilane compound is mixed with an organic solvent to form a first mixed solution. A hydrolysis process: an acid catalyst is added into the first mixed solution to perform a hydrolysis reaction, thereby obtaining a sol. A condensation process: an alkali catalyst is added into the sol to perform a condensation reaction, and a hydrophobic dispersion solvent is added and stirred during the condensation process, thereby subjecting sol to be gelled when it is stirred, further producing the aerogel particle with a uniform structure.

Abstract: A highly dispersed graphene organic dispersion and an application thereof are provided. A mixture is firstly provided, which includes a graphite material and an organic solvent. And then, the mixture is subjected to a peeling process at high temperature and high pressure, thereby obtaining the highly dispersed graphene organic dispersion. The highly dispersed graphene organic dispersion contains 75% or more of a single-layered graphene.

Abstract: A highly dispersed graphene organic dispersion and an application thereof are provided. A mixture is firstly provided, which includes a graphite material and an organic solvent. And then, the mixture is subjected to a peeling process at high temperature and high pressure, thereby obtaining the highly dispersed graphene organic dispersion. The highly dispersed graphene organic dispersion contains 75% or more of a single-layered graphene.

Abstract: The present invention relates to a method of preparing high crystalline polythiophene nanowire used for organic solar panels, including the following steps: A. a 0.001-40 wt % polythiophene solution is prepared; B. a 0.01-10 wt % carbon nanomaterial suspension is prepared and a 0.001-5 wt % dispersant is added to the suspension to generate a carbon nanomaterial dispersion; C. The foregoing carbon nanomaterial dispersion is added to the polythiophene solution and the resulting mixture is let stand under atmospheric pressure at ?10˜45° C. for 20˜400 min so that polythiophene molecules are able to be adsorbed and stacked up on the surface of carbon nanomaterials to generate polythiophene nanowires. Owing to high alignment order and high crystallinity, the polythiophene nanowire is helpful for elevating light conversion efficiency of organic solar panels.

Abstract: An organic fiber for a solar panel and a photoluminescent element and a material for preparing the same are provided. An organic conjugated polymer is dissolved in a solvent and is used to prepare an organic conjugated polymer fiber directly in an electrospinning process. The organic conjugated polymer fiber is applied in an organic photoluminescent base material with a high luminous efficiency or an organic solar panel with a high absorption efficiency. The organic conjugated polymer fiber is prepared directly by using the electrospinning process, and a diameter of the organic conjugated polymer fiber is between about 10 nm and 100 ?m.