Abstract:
본 발명은 a) 금속 전구체, 산, 아민 및 환원제를 포함하는 제1 용액을 가열 및 교반하여 표면 산화막 형성이 제어된 금속 나노입자를 합성하는 단계, b) 상기 a) 단계에서 생성된 금속 나노입자를 비수계 용매에 분산시켜 전도성 잉크 조성물을 제조하는 단계, c) 상기 전도성 잉크 조성물을 절연성 기판에 도포하는 단계 및 d) 잉크 조성물이 도포된 절연성 기판을 열처리하여 금속 전도성 박막을 형성하는 단계를 포함하는 금속 전도성 박막의 제조방법에 관한 것이다. 본 발명에 따른 금속 전도성 박막 제조방법은 기존의 귀금속 나노입자 기반의 전도성 잉크 조성물에 비해 저가, 대면적 전도성 박막 제조공정을 가능케 할뿐만 아니라, 표면 산화막의 제어를 통해 우수한 전도도를 가지는 금속 전도성 박막의 제조방법을 제공한다.
Abstract:
본 발명은 태양전지 광활성층의 제조방법에 관한 것으로, 상세하게, 본 발명의 제조방법은 a) 11족 금속의 제1칼코젠화합물 및 상기 제1칼코젠화합물보다 낮은 융점을 갖는 11족 금속의 제2칼코젠화합물이 단일한 입자 내에 혼재된 복합 입자 및 12족 내지 14족에서 하나 또는 둘 이상 선택된 원소의 제3칼코젠화합물을 함유하는 잉크를 기판에 도포하여 도포막을 형성하는 단계; 및 b) 상기 도포막을 열처리하여 구리 및 12족 내지 14족에서 하나 또는 둘 이상 선택된 원소의 다원 칼코젠화합물 막을 제조하는 단계를 포함한다.
Abstract:
PURPOSE: Ink is provided to produce a semiconductor compound based photoactive layer in a single phase by a low temperature heat-processing at a temperature lower than 550°C, which is a process allowable temperature. CONSTITUTION: Ink contains the following: a composite particle which contains a first chalcogen compound of 11th group, and a second chalcogen compound of the 11th group with the lower melting point than the first chalcogen compound; and a precursor of more than one element selected from 12-14th group. The melting point of the second chalcogen compound is 220-550°C. A production method of a solar cell photoactive layer comprises a step of forming a coating film by coating the ink on a substrate, and a step of heat-processing the coating film.
Abstract:
PURPOSE: A manufacturing method of a photoactive layer is comprises to be able to manufacture multi-source chalcogen compound (a photoactive layer) with high quality through simple, safe and convenient processes, or to be able to manufacture a photoactive layer made of coarse grains, having an excellent compositional stability and uniformity, and an elaborate fine structure. CONSTITUTION: Ink includes composite particles in which a first chalcogen compound of a metal of group 11, and a second chalcogen compound of a metal of group 11, which has a lower melting point than the first chalcogen compound, are mixed in a single particle; and a third chalcogen compound of one or more than two selected from group 12-14. A manufacturing method of a photoactive layer for a solar cell comprises (i) a step of forming a coated film by coating the ink on a substrate; and (ii) a step of manufacturing a multi-source chalcogen compound film of a metal of group 11, and one or more than two elements selected from group 12-14, by heat-treating the coated film.
Abstract:
PURPOSE: A method for manufacturing a Cl(G)S thin film by a Se low temperature deposition heat treatment is provided to obtain a high electric property by densifying the Cl(G)S thin film. CONSTITUTION: Se is deposited on a thin film including Cl(G)S sample heated at 60 to 150 degrees centigrade. A thin film including the Cl(G)S sample with Se is thermally treated at 300 to 600 degrees centigrade. The Cl(G)S sample includes a precursor which is transformed into Cl(G)S materials or Cl(G)S. [Reference numerals] (AA) Depositing Se vapor on the surface and the inner side of Cl(G)S sample including a precursor which is transformed into Cl(G)S materials or Cl(G)S at 60°C~150°C; (BB) Additionally thermally processing Se deposited Cl(G)S sample at 300°C~600°C by controlling steam pressure; (CC) Cooling at room temperature
Abstract:
PURPOSE: A method for manufacturing a CIS thin film is provided to mass-produce a CuInSe2 photoactive layer with a solution process. CONSTITUTION: A CuInSe2 nano particle is made by using copper amino alkoxide, indium amino alkoxide and selenium powder. A coating layer is formed by coating a molybdenum film of a glass substrate with coating solutions including CuInSe2 nano particles. A CuInSe2 thin film is formed by thermally processing the glass substrate with the coating layer between 300 and 600 degrees centigrade.
Abstract:
PURPOSE: A method for manufacturing low temperature water-based copper-indium-(gallium-)selenide(CuIn_xGa_1-xSe_2) nano particles is provided to use carboxylic acid derivative in order to be eco-friendly implemented. CONSTITUTION: A copper complex is prepared by reacting a copper compound and carboxylic acid derivative, represented by chemical formula 1, in an aqueous solvent. A selenium compound is introduced into the copper complex solution, and a copper-selenium complex is prepared. An indium compound is introduced into a copper-selenium complex solution. Copper-indium-(gallium-)selenium nano particles are prepared.
Abstract:
PURPOSE: A novel hafnium alkoxide compounds and a preparing method thereof are provided, in which compounds are thermally stable, have high volatility, and enhance reactivity with the ozone. CONSTITUTION: A novel hafnium alkoxide compound is represented as the chemical formula 1, HF(OCR^1R^2R^3)_4. In the chemical formula 1, R^1 and R2 are independently the linear or branched alkyl group of C1-C5, R^3 is linear alkenyl or alkynyl group of C2-C5. R^1 and R2 are independently selected from CH_3, C2H5, and CH(CH_3)2 or C(CH_3)3, and R^3 is C≡CH, CH_2C≡CH, CH_2CH_2C≡CH, C≡CCH_3, CH_2C≡CCH_3 or CH_2CH_2C≡CCH_3. The manufacturing method of the hafnium alkoxide compound of the chemical formula 1 is to react hafnium amide compound of the chemical formula 2, Hf(NR^4R^5)_4 and alcohol compound of the chemical formula 3, HOCR^1R^2R^3.
Abstract translation:目的:提供一种新型的铪醇盐化合物及其制备方法,其中化合物是热稳定的,具有高挥发性,并增强与臭氧的反应性。 构成:一种新的铪醇盐化合物以化学式1表示,HF(OCR 1 R 1 R 2 R 3)4。 在化学式1中,R 1和R 2独立地是C 1 -C 5的直链或支链烷基,R 3是C 2 -C 5的直链烯基或炔基。 R 1和R 2独立地选自CH 3,C 2 H 5和CH(CH 3)2或C(CH 3)3,R 3是C≡CH,CH 2C≡CH,CH 2 CH 2C≡CH,C≡CCH3,CH 2C≡CCH3 或CH 2 CH 2C≡CCH3。 化学式1的铪醇盐化合物的制造方法是使化学式2的铪酰胺化合物,Hf(NR 4 4R 5)4和化学式3的HO化合物HOCR 1 1R 2 2R 3 。
Abstract:
A method for manufacturing nano-sized cadmium and cadmium chalcogenide colloid in an organic solvent is provided to show excellent dispersibility in organic solvents, crystalline and purity as well as uniform particle size distribution. A method for manufacturing nano-sized cadmium and cadmium chalcogenide colloid in an organic solvent comprises: a first step of heating a reactant containing cadmium aminoalkoxide compounds in order to transform it to a cadmium-containing nanoparticle; and a second step of separating the obtained cadmium-containing nanoparticle. The reactant containing a precursor material selected among S, Se and Te can be added in the first step and therefore cadmium chalcogenide nanoparticles are obtained.