[HUANG TING WEI, CHEN YI HHANG, YEN PEI SHAN, CHEN YAO LUN, CHI YEN HSUN] TW A manufacturing method of hydrogen filtration membrane is provided. An anodic aluminum oxide (AAO) support is provided, and a surface of the AAO support is then sensitized and activated. Thereafter, a first palladium (Pd) film is electroless plated on the surface of the AAO support, and a second Pd film is plated on the first Pd film with plasma. In this method, the opening ratio and the surface uniformity of the support of the Pd films can be improved and increased according to uniform openings resulted from aluminum oxide support by anodizing treatment. Therefore, the Pd films plated on the support can be fine and dense in the thinnest thickness case, and the hydrogen flux can meet the commercial application at the same time.

[TSAI RAY LONG, HSIEH PEI SHAN, CHEN TUNG CHUAN, WANG CHENG YEN, CHANG SHIH TSUNG] TW A pattern displaying device includes a light path changing element, a first light source, a second light source, and a control module. The light path changing element has first inclined surfaces to reflect light and arranged into a first predetermined pattern, and second inclined surfaces to reflect light and arranged into a second predetermined pattern. The first light source is operable to emit light toward the first inclined surfaces to display the first predetermined pattern. The second light source is operable to emit light toward the second inclined surfaces in order to display the second predetermined pattern. The control module is electrically connected to the first and second light sources to control the first and second light source to emit light or not.

[Ray-Long Tsai, Pei-Shan Hsieh, Tung-Chuan Chen, Cheng-Yen Wang, Shih-Tsung Chang] TW Taichung A pattern displaying device includes a light path changing element, a first light source, a second light source, and a control module. The light path changing element has first inclined surfaces to reflect light and arranged into a first predetermined pattern, and second inclined surfaces to reflect light and arranged into a second predetermined pattern. The first light source is operable to emit light toward the first inclined surfaces to display the first predetermined pattern. The second light source is operable to emit light toward the second inclined surfaces in order to display the second predetermined pattern. The control module is electrically connected to the first and second light sources to control the first and second light source to emit light or not.

[Pei-Shan Yen, Chun-Ju Huang, Jie-Ren Ku, Bin-Hao Chen, Ming-Shan Jeng, FangHei Tsau, Shen-Chuan Lo, Tu Chen] TW The invention utilizes a carbon nano material to nanotize a magnesium-based hydrogen storage material, thereby forming single or multiple crystals to enhance the surface to volume ratio and hydrogen diffusion channel of the magnesium-based hydrogen storage material. Therefore, the hydrogen storage material has higher hydrogen storage capability, higher absorption/desorption rate, and lower absorption/desorption temperature.

[YEN PEI-SHAN, HUANG CHUN-JU, KU JIE-REN, CHEN BIN-HAO, JENG MING-SHAN, TSAU FANG-HEI] TW Disclosed is utilizing carbon nano-material to nanotize magnesium-based hydrogen storage material, thereby forming single or multiple crystals to enhance its surface to volume ratio and hydrogen diffusion channel. Therefore, the hydrogen storage material has higher hydrogen storage capability, higher absorption/desorption rate, and lower absorption/desorption temperature.

[YEN PEI-SHAN, HUANG CHUN-JU, KU JIE-REN, CHEN BIN-HAO, JENG MING-SHAN, TSAU FANGHEI, LO SHEN-CHUAN, CHEN TU] The invention utilizes a carbon nano material to nanotize a magnesium-based hydrogen storage material, thereby forming single or multiple crystals to enhance the surface to volume ratio and hydrogen diffusion channel of the magnesium-based hydrogen storage material. Therefore, the hydrogen storage material has higher hydrogen storage capability, higher absorption/desorption rate, and lower absorption/desorption temperature.

[Ray-Long TSAI, Pei-Shan HSIEH, Tung-Chuan CHEN, Cheng-Yen WANG, Shih-Tsung CHANG] TW Taichung City A pattern displaying device includes a light path changing element, a first light source, a second light source, and a control module. The light path changing element has first inclined surfaces to reflect light and arranged into a first predetermined pattern, and second inclined surfaces to reflect light and arranged into a second predetermined pattern. The first light source is operable to emit light toward the first inclined surfaces to display the first predetermined pattern. The second light source is operable to emit light toward the second inclined surfaces in order to display the second predetermined pattern. The control module is electrically connected to the first and second light sources to control the first and second light source to emit light or not.

[Kong-Wei Cheng, Jau-Chyn Huang, Ching-Sung Hsiao, Pei-Shan Yen] TW Hsinchu A concentration difference photochemical reactor includes of a photochemical reaction tub and a photocatalyst reaction plate. The photocatalyst reaction plate is formed by combining in sequence a photocatalyst, a metal, a conductive carrier, and a reduction electrode to reduce its internal resistance barrier and increase the electron-hole separation rate excited by photons. By adjusting the concentration difference in the solutions inside the photochemical reaction tub, the location of chemical reactions is changed to increase the efficiency and reduce the use of a sacrificing reagent without the restrictions of thermodynamics.

[CHENG KONG-WEI, HUANG JAU-CHYN, HSIAO CHING-SUNG, YEN PEI-SHAN] TW This invention relates to a concentration-differential photochemical reactor, comprising a photochemical reactor and photocatalytic reaction plates. Photocatalysis, metal, electrical conductive material, and cathode electrode are used and arranged in sequence to form the photocatalytic reaction plate for reducing the internal electric resistance and increasing the efficiency of separation of electron and hole by the photon excitation. Moreover, by adjusting the concentration difference of the treatment solution in photochemical reactor, the position of equilibrium of chemical reaction can be changed so as not to be restricted by thermodynamics law; and to increase the efficiency of the chemical reaction and to reduce the amount of sacrificial reagent.

[DATTA, Ravindra, YEN, Pei-Shan, DEVEAU, Nicholas D.] 100 INSTITUTE ROADWORCESTER, Massachusetts 01609 A hydrogen separation membrane employs dense liquid metal separator deposited on a support structure for providing a membrane film allowing passage of hydrogen to be used in industrial processes and consumer applications benefiting from pure hydrogen. A support structure such as silicon carbide is non-reactive with the molten metal, thus withstanding the high temperatures associated with hydrogen producing processes. The liquid metal "wets", or adheres/covers the support structure to form continuous membrane for passing only hydrogen and resisting breakdown leading to discontinuity in the membrane surface. The molten (liquid) metal membrane is "sandwiched" between porous and inert ceramic supports to form a continuous thin film. Molecular hydrogen dissociates on the liquid metal membrane surface when exposed to a hydrogen gas mixture. The resulting hydrogen atoms dissolve into and diffuse across liquid metal film to arrive at the opposite surface, where they reassociate and desorb as pure hydrogen gas. A hydrogen separation membrane employs dense liquid metal separator deposited on a support structure for providing a membrane film allowing passage of hydrogen to be used in industrial processes and consumer applications benefiting from pure hydrogen. A support structure such as silicon carbide is non-reactive with the molten metal, thus withstanding the high temperatures associated with hydrogen producing processes. The liquid metal "wets", or adheres/covers the support structure to form continuous membrane for passing only hydrogen and resisting breakdown leading to discontinuity in the membrane surface. The molten (liquid) metal membrane is "sandwiched" between porous and inert ceramic supports to form a continuous thin film. Molecular hydrogen dissociates on the liquid metal membrane surface when exposed to a hydrogen gas mixture. The resulting hydrogen atoms dissolve into and diffuse across liquid metal film to arrive at the opposite surface, where they reassociate and desorb as pure hydrogen gas.