Abstract:
본 발명은 잉크젯 프린팅이 가능한 전도성 고분자 잉크 조성물의 제조에 관한 것으로, 수용액에 분산되어 있는 입자 크기가 균일한 실리카-폴리아닐린 코어-쉘 나노입자를 이용하여 잉크젯 프린팅에 응용이 가능한 잉크를 제조하는 방법에 관한 것이다. 구체적으로, 본 발명은 입자 사이즈가 수나노미터에서 수백나노미터인 폴리아닐린/실리카 코어/쉘 나노입자를 수용액 상에 부용매 및 분산안정제를 첨가하여 잉크젯 프린터로 프린팅이 가능한 고분산성, 전기전도성 고분자-무기 나노복합체 잉크를 제조하는 방법에 관한 것이다. 본 발명에 따르면 간단하고 저렴한 방법으로 실리카-전도성 고분자 나노복합체를 수용액 상에 매우 안정하게 분산시키고, 잉크젯 프린팅 후 전도성 도막을 형성하는 과정에 있어서 추가적인 열처리 필요없이 낮은 비저항을 얻을 수 있을 뿐만아니라, 형성된 전도성 도막의 유연성 및 가시광선 영역에서의 고투과도로 인해 유연(flexible)하면서 투명한 (transparent) 유기전기/전자 소재 및 바이오 테크노로지 등 다양한 산업분야로 응용이 가능하다. 잉크젯 프린터용 잉크, 전도성 고분자, 폴리아닐린, 무기-유기 나노복합체
Abstract:
PURPOSE: A manufacturing method of an ink for an ink-jet printer is provided to secure the environment-friendly property by using water as a solvent, and to simply and rapidly form a micro structure of an electricity / electric device. CONSTITUTION: A manufacturing method of a conductive polymer-inorganic nanocomposite ink for an ink-jet printer comprises the following steps: adding a poor solvent to a solution using a silica-polyaniline nanoparticle; forming a conductive ink by controlling the matter property including the viscosity and the surface tension of the solution by inserting a dispersing stabilizer; and evaluating the electric property of the conductive ink after forming a micro structure with the ink using the ink-jet printer.
Abstract:
PURPOSE: A manufacturing method of mesoporous carbon including nitrogen with vapor deposition polymerization and application thereof as a heavy metal absorbent are provided to manufacture the mesoporous carbon including nitrogen without an additional injection process of a functional group. CONSTITUTION: A manufacturing method of mesoporous carbon including nitrogen includes the following steps: manufacturing a polymer - silica nanocomposite by injecting the polymer into a silica template with evaporation polymerization of monomer; manufacturing a carbon - silica nanocomposite with carbonization of the polymer - silica nanocomposite; and manufacturing mesoporous carbon by removing a silica mold from the carbon - silica nanocomposite.
Abstract:
PURPOSE: A manufacturing method of a mesopore silica nanofiber catalyst is provided to be applied with various organic combination reactions of high efficiency catalysts, and to control catalytic activity by modifying structure of mesopore. CONSTITUTION: A manufacturing method of a mesopore silica nanofiber catalyst comprises the following steps; a step of manufacturing the mesopore silica nanofiber by adopting a silica precursor as a gas phase after a surfactant solution of 2 kinds is introduced to a hard mold; a step of collecting the manufactured mesopore silica nanofiber; a step of introducing catalyst reaction site by using a silane coupling agent in the collected mesopore silica nanofiber; and a step of adjusting structure of mesopore silica nanofiber.
Abstract:
PURPOSE: A patterning method of conducting polymer using inkjet printing and vapor deposition polymerization is provided to by adjusting the concentration of a polymerization initiator and responding temperature and responding time within an evaporation polymerization reactor. CONSTITUTION: The polymerization initiator solution is manufactured to print the inkjet. The polymerization initiator solution is inserted into a printer head. The shape to form on a flexible supporter(b) is printed. The supporter printed with the polymerization initiator solution is positioned within an evaporation polymerization reactor. The monomer of the conductive polymer to form is vaporized.
Abstract:
PURPOSE: A new manufacturing method of a polyrhodanine nano fiber including a silver nano particle is provided to improve the antibacterial effect, and to easily manufacture the polyrhodanine nano fiber. CONSTITUTION: A new manufacturing method of a polyrhodanine nano fiber including a silver nano particle comprises the following steps: inserting a silver ion to a solvent and melting the silver ion using a shearing force; inserting a rhodanin monomer to the solvent and melting; oxidizing the rhodanin monomer using the silver ion and reducing the silver ion at the same time; polymerizing by the chemical oxidization polymerization under the shearing force on the surface of a silver nano particle; and precipitating the polyrhodanine nano fiber including the silver nano particle. The temperature for the polymerization is 1~100 deg C.
Abstract:
PURPOSE: A conductive nanocomposite for an automobile fuel tube is provided to improve flexibility having an influence on inflection moldability and impact strength, and to contribute to performance improvement of automobile fuel tube. CONSTITUTION: A conductive nanocomposite for an automobile fuel tube is such that polypyrrole nanoparticle polymer powder is dispersed on an electrically insulating polyamide resin. The electrically insulating polyamide resin is PA12 (polyamide 12) or PA612 (polyamide 612). The size of the polypyrrole nanoparticle is 10 ~ 500 nm. The polypyrrole nanoparticle polymer powder is included in the amount of 10 ~ 15 weight%.