Industrial Technology Research Institute

Sancastle Worldwide Corporation

National Taiwan University

National Science Council

Cpc Corporation, Taiwan

Chinese Petroleum Corporation

Hong-Ping Lin

Shou-Nan Li

Chung-Yuan Mou

Chun-Pin Lin

Hui-Ya Shih

Wei-Yen Yeh

Yu-Ming Lin

Yang-Chuang Chang

Rong-Nan Huang

I-Ling Nien

Haw-Yeu Chuang

Wen-An Xie

Tzu-Hsien Hsieh

Wen-Jer Wu

Shiang-Jiuun Chen

Shaw-Yi Yen

Bo-Jui Chen

Jui-Hsiang Cheng

Chuan-Lin Chang

Chen Wei Shih

Tsung-Yi Chen

Wen-Ling Lu

Ssu-Jung Pan

A device and method of simultaneously removing flammable gases and nitrous oxide are provided. The device includes a thermal oxidation chamber, a high-temperature resistant dust filter, and a catalyst chamber. The thermal oxidation chamber is configured to receive an exhaust gas from a process tool. The exhaust gas includes flammable gases and nitrous oxide. The thermal oxidation chamber has a first exhaust pipe to emit nitrous oxide and dust generated after the exhaust gas is thermally oxidized. The high-temperature resistant dust filter receives dust and nitrous oxide from the first exhaust pipe, wherein the high-temperature resistant dust filter has a filter fiber net and a second exhaust pipe, and the second exhaust pipe is configured to emit nitrous oxide. The catalyst chamber receives nitrous oxide from the second exhaust pipe, wherein the catalyst chamber has a nitrous oxide decomposition catalyst to decompose nitrous oxide into nitrogen and oxygen.

Device and method of simultaneously removing flammable gases and nitrous oxide

The invention provides a method for making multiporous carbon material from a bio-oil produced by a biomass thermochemical process. The bio-oil is blended with a resin and a Zinc Oxide (ZnO) template as a major component of a precursor. The pore sizes of the carbon material made by the invention comprise mesopores and micropores to form the multiporous carbon material. The main production steps include: (1) mixing the precursor with a crusher, (2) packing the precursor, (3) heating for carbonization: holding 350&#xb0; C. for 1 hour then holding 900&#xb0; C. for 2 hours, and (4) washing the ZnO with hydrochloric acid by adjusting the pH value to less than 1.

Method for making multiporous carbon materials by using bio-oils

A carbonized material, a device for removing ozone, and a method for removing ozone are provided. The carbonized material has at least a carbonyl-containing group, alkylol group, and carbon having sphybrid orbital. In particular, the at least one carbonyl-containing group has a carbon content from 10 atom % to 30 atom %, based on the total carbon atoms of the at least one carbonyl-containing group, the at least one alkylol group, and the at least one carbon having sphybrid orbital.

Carbonized material, device for removing ozone, and method for removing ozone

Provided is a formulation for oral teeth, which includes a plurality of calcium ion carriers and a plurality of calcium-containing particulates. The particulates are carried by the calcium ion carriers, such that the formulation can prevent or rapidly treat dentin-associated symptoms or diseases, while providing a prolonged prophylactic or therapeutic effect.

Composition for preventing or treating dentin-associated symptoms or diseases, and method using the same

An embodiment provides a manufacturing method for a porous carbon material including: preparing a first solution including a surfactant, a carbon source material and a solvent; pouring the first solution into a silica sol aqueous solution to form a second solution; preparing a silicate aqueous solution; pouring the silicate aqueous solution into the second solution to form a third solution and to precipitate out an intermediate, wherein the intermediate includes the surfactant, the carbon source material and a silica template; performing a heating process on the intermediate to carbonize the intermediate; and removing the silica template of the carbonized intermediate to form a porous carbon material. Another embodiment of the disclosure provides a porous carbon material. The other embodiment provides a supercapacitor.

Porous carbon material and manufacturing method thereof and supercapacitor

Disclosed herein are UV-resistant gelatin/silica coated viral particles, methods for producing the same, and methods for controlling agricultural insect pests using the UV-resistant gelatin/silica coated viral particles.

UV-resistant gelatin/silica viral particles, preparation method and uses thereof

The invention provides a nanostructure material with metallic oxide including a product fabricated by the following steps: condensing silicon oxide or titanium oxide with a surfactant, obtaining a mesoporous silicon oxide or titanium oxide; mixing the mesoporous silicon oxide or titanium oxide with a metal or metallic compound and subjecting the mixture to a heterogeneous nucleation. According to another embodiment of the invention, the nanostructure material can also be fabricated by the following steps: subjecting silicon oxide or titanium oxide and a carbon black template to a calcination; mixing the results with a metal or metallic compound; and subjecting the mixture to a second calcinations. Further, in the invention, a method for detecting phosphorus-containing compounds employing the aforementioned nanostructure material is also provided.

Nanostructure material with metallic oxide and method for detecting phosphorus-containing compounds

The present invention relates to a method for synthesizing mesoporous aluminosilicate or pure-silica molecular sieves with newly hierarchical morphologies by adding suitable amount of alcohol. There are hollow sphere, hollow sphere with a pillar in it and solid sphere by adjusting the Al,O,/SiO,and tetraethylorthosilicate/SiO,ratio. The wall of the micron-sized spherical structure consisted of well-ordered cylindrical pores of nanometer size. The dimensions and the morphologies of the mesoporous structure are adjustable by varying the reaction components as the water content, the silicon/surfactant ratio and the reaction and the hydrothermal temperature.

Control of morphology of mesoporous aluminosilicate or pure-silica molecular sieves by effect of alcohol

The present invention relates to a method for synthesizing mesoporous aluminosilicate and pure silica molecular sieves of new micro-tubular morphology. The wall of the microtubules contains coaxial cylindrical pores of nanometer size. The diameter of the hollow tubular is adjustable from 0.1 to 3 micrometer by varying the reaction conditions such as the surfactant/water ratio, the addition of salts or cosurfactants, the surfactants with different carbon chain length and the silicon/aluminum ratio.

Mesoporous aluminosilicate molecular sieves having

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Taipei, Taiwan

Hong-Ping Lin