Industrial Technology Research Institute

Other

Hong Jen Textile Co. Ltd

Yeh, Jen-taut

Jing-Wen Tang

Chih-Lung Chen

Yu-Chun Liu

Ting-Yu Shih

Kai-Jen Hsiao

Yi-Ting Hsieh

Lu-Chih Wang

Wen-Hsien Sun

Yuan-Kun Yu

Tzong-Ming Lee

Hong-Dun Lin

Wen-Fa Lin

Shu-Fang Chiang

Yen-Hsien Lee

Jen-Taut Yeh

Kan-Nan Chen

Chia-Chun Wang

Chung-Yang Chuang

Chi-Ying Hung

Tien-Ching Lu

Chi-Hui Tsou

Tien-Szu Hsieh

Yong-Syuan Chen

Pei-Fen Zhen

Shi-Kuang Hwang

Ruey-Ling Liu

A graft polymer is provided, which includes a polymer backbone with a plurality of hydroxy groups, protection group modified histidine grafted onto the side of the polymer backbone, and hydrophilic polymer having terminal reactive group grafted onto the side of the polymer backbone. The graft polymer coating can be applied to metal material to form a composite material, which can be implanted into an organism to reduce adhesion problems.

Graft polymer and composite material containing the same

A method for skin care and/or maintenance including applying or administering a preparation to a subject is provided. The preparation includes a biomedical composition, and the biomedical composition includes an effective amount of micelle, wherein the micelle includes a hyaluronic acid and/or a derivative thereof and a modified histidine. The modified histidine is grafted to at least one primary hydroxyl group of the hyaluronic acid and/or the derivative thereof, and a graft ratio of the modified histidine is 1-100%. Moreover, the hyaluronic acid and/or the derivative thereof and the modified histidine form the micelle on a weight percentage of 0.2-300:1.

Biomedical composition for skin care and/or maintenance and delaying and/or inhibiting skin aging and the use thereof

A method for preparing &#x3b1;-cellulose, a spinning composition, and a fiber material are provided. The method for preparing &#x3b1;-cellulose includes providing a coffee residue; subjecting the coffee residue to a decolorization treatment, obtaining a white powder; reacting the white powder with an alkaline solution, obtaining a mixture; filtering the mixture to produce a filter cake; and baking the filter cake to obtain &#x3b1;-cellulose.

Method for preparing &#x3b1;-cellulose, spinning composition, and fiber material

A carbon fiber precursor composition and a method for preparing carbon fiber precursor are provided. The carbon fiber precursor composition includes 100 parts by weight of acrylonitrile; 1-15 parts by weight of co-monomer; and, 0.1-3 parts by weight of stereoregularity controlling agent. The stereoregularity controlling agent has a structure represented by formula (I), Formula (II), Formula (III), or Formula (IV): wherein Rand Rare hydrogen, &#x2014;OH, &#x2014;COOH, or &#x2014;NH; Ris Calkylene, or carbonyl; Ris hydrogen, or Calkyl; and, Ris Calkylene.

Carbon fiber precursor composition and method for preparing carbon fiber precursor

A physiology detecting garment, a physiology detecting monitoring system, and a manufacturing method of a textile antenna are provided. The physiology detecting garment detects and collects physiology information of a wearer. The physiology detecting garment includes a garment, a textile antenna and a detecting device. The textile antenna is made of a conductive composition including a conductive nanowire and a polyurethane polymer. The textile antenna is thermal-compression bonded to the garment. The detecting device is electrically connected to the textile antenna and emits a detecting signal via the textile antenna.

Physiology detecting garment, physiology detecting monitoring system and manufacturing method of textile antenna

An electrothermal composition and electrothermal textiles are provided. The electrothermal composition includes a polyurethane and a plurality of metal nanomaterials. The polyurethane has repeating unit of Formula (I): wherein Ris Ris Ris Ris Ris Calkylene group, Ris Calkylene group, Ris Calkylene group, Ris Calkylene group, X is Ris Calkylene group, a is 1 to 100, b is 0 to 100, and a&#x2265;b. The polyurethane has dynamic viscosity of 1000 cP to 5000 cP at 25&#xb0; C.

Electrothermal material composition and electrothermal textile

In a deep dyeing process of a polyamide (PA) including Nylon 4, Nylon 6, Nylon 46, Nylon 66, Nylon 7, Nylon 8, Nylon 9, Nylon 610, Nylon 1010, Nylon 11, Nylon 12, Nylon 13, Nylon 612, Nylon 9T, Nylon 13, MC Nylon, Nylon MXD6, and all polyamide derivatives, and a polyolefin (PO) including ethylene copolymer, propylene copolymer and their derivatives, a compatibilizer precursor is used for modifying the polyamide and polyolefin of an amino, hydroxyl or epoxy group containing chemical, and then a reactive dye and/or an acid dye is used for dyeing the polyamide and polyolefin, so that the dyed polyamide and polyolefin have excellent dye fastness, light fastness, rubbing fastness, washing fastness and low-temperature dyeability to overcome the shortcomings of conventional nylon fibers including a poor dyeing effect, a non-level dyeing quality, a high dyeing temperature (100&#xb0; C. to 120&#xb0; C.) and a high cost.

Deep dyeing process of polyamide and polyolefin

A method of removing spinning and finishing oils from fibers using supercritical carbon dioxide as an extraction media is provided. This process using carbon dioxide to remove oils from fiber surface operates at moderate pressures between 90 and 350 bar and at temperature levels ranghng from 40 to 120&deg; C. The treated fibers have improved strength and elongation properties compared to those treated by conventional scouring. The treated fibers can be directly subjected to the subsequent dyeing processing.

Method of fiber scouring with supercritical carbon dioxide

Growing community of inventors

Hsinchu, Taiwan

Jing-Wen Tang