Industrial Technology Research Institute

Guang-Way Jang

Hsiu-Yu Cheng

Yin-Ju Yang

Shu-Chen Li

Po-Ju Chen

Ya-Hui Lin

Cheng-Jyun Huang

Pei Tien

Mei-Chih Hung

Jing-Yuan Lin

Yuung-Ching Sheen

Hsi-Yen Hsu

Jinn-Jong Wong

Mu-Jen Young

Pei-Ching Chang

Ying-Chih Pu

Chang-Ming Wong

Shu-Jiuan Huang

Hsiang-Yuan Chu

Jhong-De Lin

Ya-Lin Lin

Jian-Yi Hang

Ying-Ting Huang

Chih-Fen Chang

I-Chia Tsai

Shu-Chen Lee

Jen-Min Chen

A K Chu

A polyester is copolymerized with diacid monomer, esterified diacid monomer or a combination thereof with a polyol monomer. The diacid monomer, the esterified diacid monomer or the combination thereof includes (1) furan dicarboxylic acid, dialkyl furandicarboxylate, or a combination thereof or (2) furan dicarboxylic acid, dialkyl furandicarboxylate, or a combination thereof and spiro-diacid. The polyol monomer includes (3) C-Cpolyol or (4) C-Cpolyol and spiro-diol of Formula (I): and the spiro-diacid of Formula (II): The diacid monomer, esterified diacid monomer or combination thereof and polyol monomer meet: (a) The diacid monomer, the esterified diacid monomer or combination thereof includes (2) furan dicarboxylic acid, dialkyl furandicarboxylate, or the combination thereof and spiro-diacid or (b) The polyol monomer includes (4) C-Cpolyol and spiro-diol, and an amount of spiro-diol or spriro-diacid is 500 ppm to 2000 ppm based on a weight of furan dicarboxylic acid, dialkyl furandicarboxylate, or combination thereof.

Polyester and method of manufacturing the same

A fiber includes polyester copolymerized with diacid monomer, esterified diacid monomer or combination thereof with a polyol monomer. The diacid monomer, esterified diacid monomer or combination thereof includes (1) furan dicarboxylic acid, dialkyl furandicarboxylate, or combination thereof or (2) furan dicarboxylic acid, dialkyl furandicarboxylate, or combination thereof and spiro-diacid. The polyol monomer includes (3) C-Cpolyol or (4) C-Cpolyol and spiro-diol. The diacid monomer, esterified diacid monomer or combination thereof and the polyol monomer meet: (a) diacid monomer, esterified diacid monomer or combination thereof includes (2) furan dicarboxylic acid, dialkyl furandicarboxylate, or combination thereof and spiro-diacid, (b) polyol monomer includes (4) C-Cpolyol and spiro-diol, or (c) a combination thereof. The polyester has a viscosity at 30&#xb0; C. of 0.5 dL/g to 1.5 dL/g, and an amount of spiro-diol or spriro-diacid is 500 ppm to 2000 ppm based on a weight of the furan dicarboxylic acid, dialkyl furandicarboxylate, or the combination thereof.

Fiber and method of manufacturing the same

A genetic engineered bacteria without or comprising a plurality of important metabolic enzyme related genes is provided. When the by-product or waste of fruit and vegetable is used as the culture medium, a large quantity of succinic acid or lactic acid can be produced via fermentation. A method of producing succinic acid and lactic acid using the genetic engineered bacteria is also provided.

Genetic engineered bacteria and methods for promoting production of succinic acid or lactic acid

In one embodiment of the disclosure, a composite material with conductive and ferromagnetic properties is provided. The composite material includes: 5 to 90 parts by weight of a conductive polymer matrix; and 0.1 to 40 parts by weight of iron oxide nanorods, wherein the iron oxide nanorods are ferromagnetic and have a length-to-diameter ratio of larger than 3. In another embodiment, a hybrid slurry is provided. The hybrid slurry includes a conductive polymer, and iron oxide nanorods, wherein the iron oxide nanorods are ferromagnetic and have a length-to-diameter ratio of larger than 3; and a solvent.

Composite material with conductive and ferromagnetic properties and hybrid slurry

A method of preparing an organic-inorganic hybrid material is described. A M(OR)x and an organically modified Si-alkoxide having a predetermined functional group are dissolved in a first solvent and a second solvent to form a first solution and a second solution, respectively. The first solution and the second solution are then mixed and heated. As a result, the M(OR)x reacts with the organically modified Si-alkoxide to form a functionalized organic-inorganic hybrid material. Furthermore, the solid content of the functionalized organic-inorganic hybrid material is increased by transferring the same into another solvent. Therefore, a thick hybrid film is fabricated by means of the transferred functionalized organic-inorganic hybrid material.

Organic-inorganic hybrid material, hybrid film derived therefrom, and method for preparing the same

The present embodiment relates to a Plasticizer, which is fabricated by mixing monomers of biodegradable polymer with bio-molecules subsequently to deal the mixture with thermal treatment. The Biodegradable material comprising the Plasticizer has high melt index which is contributive for the processing of thermal processing, and the microwave-tolerance and water-resistance of the material makes the material suitable for food packaging.

Plasticizer, a biodegradable material comprising the plasticizer and application thereof

The present invention relates to a Plasticizer, which is fabricated by mixing monomers of biodegradable polymer with bio-molecules subsequently to deal the mixture with thermal treatment. The Biodegradable material comprising the Plasticizer has high melt index which is contributive for the processing of thermal processing, and the microwave-tolerance and water-resistance of the material makes the material suitable for food packaging.

Method of manufacturing gradient composite material comprises steps of providing plural surface modified inorganic nanoparticles with functional groups or oligomers with functional groups; transferring the surface modified inorganic nanoparticles or oligomers with functional groups into an organic matrix to form a mixture; performing a photo polymerization step or a thermo-polymerization step for polymerizing and generating a gradient distribution of the surface modified inorganic nanoparticles or oligomers with functional groups in the mixture; and curing the mixture to solidify the organic matrix and form a structure with gradient composite, wherein the organic matrix is transferred into an organic polymer after curing.

Gradient composite material and method of manufacturing the same

A method for transferring inorganic oxide nanoparticles from aqueous phase to organic phase. A modifier is used to change the surface polarity of inorganic oxide nanoparticles, followed by using proper solvents to transfer the modified inorganic oxide nanoparticles form aqueous phase to organic phase. The organic dispersion of modified inorganic oxide nanoparticles can be combined with a polymer to provide a polymer composite with the nanoparticles uniformly dispersed therein.

Method for transferring inorganic oxide nanoparticles from aqueous phase to organic phase

A reactive organo-modified inorganic particle. Inorganic particles are modified with functional groups through chemical bonding, ionic bonding, hydrogen bond or complex formation. The functional groups of organo-modified inorganic particle can react with monomer or oligomer of biodegradable materials to facilitate crosslinking and functionalization, thus improving physical properties of the inorganic particle-biodegradable hybrid materials.

Reactive organo-modified inorganic particles and biodegradable hybrid material containing the same

A variable optical attenuator and a method of manufacturing thereof are described. First, a bottom cladding is formed on a substrate. A waveguide structure having a core region and an attenuation region is subsequently formed on the bottom cladding by photolithography. A top cladding is then formed on the bottom cladding and the waveguide structure, and an electrode is next disposed thereon and is aligned above the attenuation region of the waveguide structure. Further, the waveguide structure is composed of a sol-gel material, which is obtained by mixing a solution of metal alkoxide with a solution of organically modified Si-alkoxide and heating the same.

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Hsinchu, Taiwan

Guang-Way Jang