Abstract:
PURPOSE: Provided are an organic, electroluminescent polymer compound which has high luminescence efficiency and excellent adhesion to insulation layer or metal electrode, and an organic, electroluminescent device comprising the same. CONSTITUTION: The organic, electroluminescent polymer compound has a structure represented by formula 1. In the formula 1, Ar is an aryl group having polar side chain, R3 and R4, which are same or different, represent a linear or branched alkyl group having C1-C20, each of x and y represents a ratio of each monomer and 0.01
Abstract:
A method for producing a highly stable polymer actuator is provided to allow the use of a polymer actuator at a low temperature and even after treatment at an extremely high temperature. A method for producing a highly stable polymer actuator comprises: a step(S11) of preparing an ionic polymer/metal composite comprising metal electrodes plated on both surfaces of a conductive polymer membrane; a step(S12) of removing water from the conductive polymer membrane of the ionic polymer/metal composite; and a step(S13) of swelling the ionic polymer/metal composite in a polar solvent having a higher boiling point and a lower freezing point than water. The polar solvent includes propylene carbonate.
Abstract:
A method for fabricating a nano wire device using nano imprinting lithography is provided to reduce an interval of fabrication time of a nano wire device by forming a pattern only once. An insulation layer(20) is formed on a substrate(10). A nano wire solution including a nano wire(60) is deposited on the insulation layer wherein a plurality of nano wires and an organic solvent can be mixed in the nano wire solution. Photoresist is formed on the resultant structure. The photoresist is stamped by using a nano imprinting stamp having a pattern of a nano size. A metal layer for a metal electrode is deposited on the stamped photoresist. The photoresist remaining on the insulation layer is removed by a lift-off process.
Abstract:
A compound for a molecular electronic device is provided to be adequately applied to embody a fine molecular electronic device in several tens of nanometer level. A molecular electronic device is provided to prevent the short-circuiting phenomenon caused by poor coverage due to having a molecular active layer with excellent coverage. A compound for a molecular electronic device consists of a ferrocene disulfide compound represented by the formula(1), wherein each R1 and R2 is respectively C1-20 saturated or unsaturated hydrocarbon which may be substituted or unsubstituted by F. A method for preparing the compound comprises the steps of: (a) subjecting ferrocene to mono-lithiation using tertiary butyl lithium; (b) reacting the mono-lithiated ferrocene with Br(CH2)mBr(m is an integer from 1 to 20) to synthesize a bromoalkyl ferrocene compound(alkyl is (CH2)m); and (c) preparing a ferrocene disulfide compound having a (CH2)m-S-S-(CH2)nCH3 group from the bromoalkyl ferrocene compound using sodium thiosulfate pentahydrate and alkane thiol(alkane is CH3(CH2)n(n is an integer from 1-19)). A molecular electronic device comprises a first electrode, a second electrode formed on the first electrode, and a molecular active layer which is interposed between the first electrode and the second electrode, and is characterized in that the molecular active layer has a structure of the compound for the molecular electronic device being self-assembled at the first electrode.
Abstract:
A method for fabricating a nano-imprint mold is provided to manufacture a quartz NIL(Nano-Imprint Lithography) mold by using a mold such as a silicon substrate. An E-beam resist is coated on a substrate and an E-beam resist pattern is formed on the first substrate by performing an E-beam lithography process(S200). A photoresist pattern is formed on the first substrate by performing a photo-lithography process(S300). A pattern is formed on the first substrate by using the E-beam resist pattern and the photoresist pattern(S400). A NIL mold is formed by printing the pattern of the first substrate on a second substrate for mold(S500,S600).
Abstract:
트리아진 그룹으로 이루어지는 CF 화합물 (PFPT)로 구성되는 유기 화합물층을 포함하는 유기 전계발광 소자에 관하여 개시한다. 본 발명에 따른 유기 전계발광 소자는 2개의 전극과, 이들 사이에 형성된 적어도 하나의 유기 화합물층을 포함하고, 상기 유기 화합물층은 다음 식으로 표시되는 트리아진 유도체 화합물이 도핑되어 있다.
식중, R 1 , R 2 , 및 R 3 는 각각 퍼플루오로페닐렌 (perfluorophenylene) 유도체이다. 퍼플루오로페닐 트리아진, 유기 전계발광 소자, PFPT, 도핑
Abstract:
본 발명은 도전성 유기박막 소자의 제작 방법에 관한 것으로, 희생층을 이용하여 하부전극 상부에 에어브리지형의 상부전극을 형성한 후 희생층을 제거하여 상부전극과 하부전극이 교차하는 부분에 수 나노 메터 두께의 나노 갭을 형성한다. 나노 갭의 상부전극과 하부전극 사이에 도전성 유기분자를 균일하게 흡착시키되, 도전성 유기분자가 흡착되는 동안 상부전극과 하부전극을 통해 흐르는 전류를 관찰하여 도전성 유기분자의 흡착 정도를 확인한다. 따라서 제작 공정의 재현성이 향상되어 표준화된 공정의 채택으로 대량 생산이 용이해진다. 도전성 유기분자, 희생층, 나노 갭, 흡착, 에어브리지형, 상부전극
Abstract:
PURPOSE: A spirobifluorene compound, an electro luminescence polymer, and an electro luminescence device containing the same are provided, thereby producing the high quality electro luminescence polymer. CONSTITUTION: The spirobifluorene compound is represented by the formula, wherein R1 and R2 are the same or different each other, and independently linear or branched C1-C22 alkyl or aryl substituted with C1-C22 alkyl, in which at least one of R1 and R2 is selected from the group consisting of O, N, S, Si and Ge; and X is halogen, boron or boron ester. The electro luminescence device comprises a glass board(10), a transparent electrode(12), a buffer layer(14), a luminescence polymer layer(16), an insulating layer(18) and a metal electrode layer(20).
Abstract:
PURPOSE: A method of patterning an indium tin oxide layer on a plastic thin film and a rotary coater used for the method are provided to coat photoresist in uniform thickness and prevent undercut generated in the event of wet etching. CONSTITUTION: An ITO layer(11) is formed on a plastic substrate(10), and photoresist is coated on the ITO layer. Heat treatment is performed in order to remove a solvent contained in the coated photoresist. Ultraviolet rays are irradiated on a portion of the ITO layer, which is etched, using a patterned mask. The exposed portion of the photoresist is developed. Heat treatment is carried out to eliminate moisture and solvent left in the photoresist. The ITO layer is dipped in an ITO etchant using the patterned photoresist as a mask to wet-etch the ITO layer. The photoresist used as the mask is stripped.