Industrial Technology Research Institute

Netronix, Inc.

Chien-Te Hsieh

Jin-Ming Chen

Shih-Chieh Liao

Yue-Hao Huang

Chia-Hao Chang

Jung-Fang Chang

Te-Chi Wong

Yu-Hung Chen

Han-Chang Shih

Chin-Jen Huang

Jung-Jung Kuo

Mao-Huang Liu

Yu-Run Lin

Mu-Rong Chao

Kuen-Yuh Wu

Tong-Yun Siao

Hsiu-Wen Huang

Hung-Hsiao Lin

Keng-Feng Lin

Rong-Rong Kuo

Chiung-Wen Hu

An adjustable electronic tag device for a suitcase or luggage includes an electronic tag provided with a fixing assembly thereon. The fixing assembly fixes the electronic tag to the suitcase. The fixing assembly includes a positioning member including a binding hole and a movable fastener arranged in the binding hole. The positioning member connects with an end of a binder and another of the binder encircles the suitcase and penetrates through the binding hole. The binder has a plurality of bars arranged in rows, and the movable fastener is fastened with at least one of the plurality of bars to fix the binder.

Adjustable electronic tag device for a suitcase

A transparent film, which has a rugged surface with tiny cilia, is prepared by the tetrapod-shaped ZnO (zinc oxide) nanopowders coated with polymers including CFand/or CHfunctional group(s). This transparent film possesses UV-shielding and water/oil repellent functions, which can be applied to textiles, glass, woods, ceramics, tiles, plastics, and metals.

Transparent film with UV-shielding and water/oil repellent functions

The prevent invention discloses a structure of thermal resistive layer and the method of forming the same. The thermal resistive structures, formed on a plastic substrate, comprises a porous layer, formed on said plastic substrate, including a plurality of oxides of hollow structure, and a buffer layer, formed on said porous layer, wherein said porous layer can protect said plastic substrate from damage caused by the heat generated during manufacturing process. With the structure and method disclosed above, making a thin film transistor and forming electronic devices on the plastic substrate in the technology of Low Temperature PolySilicon, i.e. LTPS, without changing any parameters is easy to carry out.

Structure of thermal resistive layer and the method of forming the same

A solid-phase nano extraction device includes an extraction tube whose inner surface has a nanostructure for a large contact area with object to be detected. The nanostructure can adsorb objects in an extremely short reaction time. A driving structure is designed for the solid-phase micro extraction device. The extraction tube is connected to the driving structure for the objects to enter the fiber under the force of concentration gradient, pressure difference, or capillary force, thereby being adsorbed onto the nanostructure.

Solid-phase nano extraction device

Methods of fabricating one-dimensional composite nanofiber on a template membrane with porous array by chemical or physical process are disclosed. The whole procedures are established under a base concept of 'secondary template'. First of all, tubular first nanofibers are grown up in the pores of the template membrane. Next, by using the hollow first nanofibers as the secondary templates, second nanofibers are produced therein. Finally, the template membrane is removed to obtain composite nanofibers. Showing superior performance in weight energy density, current discharge efficiency and irreversible capacity, the composite nanofibers are applied to extensive scopes like thin-film battery, hydrogen storage, molecular sieving, biosensor and catalyst support in addition to applications in lithium batteries.

Synthesis of composite nanofibers for applications in lithium batteries

Growing community of inventors

Taichung, Taiwan

Chien-Te Hsieh