Abstract:
본발명은슬러리기포탑반응기를이용한경유및 휘발유고함량합성연료의제조방법에관한것으로, 본발명에서는기존에저온 FT 반응에주로적용하는슬러리기포탑반응기(SBCR)를고온에서운전하여왁스의생산보다경유또는휘발유함량이증가된피셔트롭시합성반응생성물을생산할수 있는최적공정을제공할수 있다.
Abstract:
PURPOSE: A production method of a composite metal oxide catalyst for producing methanol is provided to produce the copper-zinc oxide-alumina-zirconium oxide composite metal oxide catalyst for synthesizing methanol, and to maximize the performance of the composite metal oxide catalyst by controlling the concentration of zirconium oxide and the pH of a coprecipitation solution. CONSTITUTION: A composite metal oxide catalyst for producing methanol contains 50-60 mol% of copper, 20-30 mol% of zinc oxide, 5-10 mol% of alumina, and 10-20 mol% of zirconium oxide. A production method of composite metal oxide catalyst for producing methanol comprises the following steps: producing metal salt solutions using copper nitrate, zinc nitrate, aluminum nitrate, and zirconium nitrate precursors (S100); measuring and mixing each metal salt solution (S200); adding an alkali precipitation agent into the missed metal salt solution after heating and stirring to obtain a precipitated catalyst (S300); aging the solution with the precipitated catalyst, and filtering and washing (S400); plasticizing the catalyst (S500); and increasing the temperature of the plasticized catalyst under the hydrogen/nitrogen flow for reducing (S600). [Reference numerals] (S100) Step of producing each metal salt solution by using copper nitrate, zinc nitrate, aluminum nitrate, and zirconium nitrate precursors; (S200) Step of measuring and mixing each metal salt solution; (S300) Step of adding an alkali precipitation agent into the missed metal salt solution after heating and stirring to obtain a predicated catalyst; (S400) Step of aging the solution with the predicated catalyst, and filtering and washing; (S500) Step of plasticizing the catalyst; (S600) Ste of increasing the temperature of the plasticized catalyst under the hydrogen/nitrogen flow for reducing
Abstract:
PURPOSE: A manufacturing method of hollow glass microspheres is provided to utilize for micro container for gas preservation and insulating material by using a flame spraying process and synthesizing glass compositions with proper ratios. CONSTITUTION: A manufacturing method of hollow glass microspheres comprises next steps: mixing Na2SO4 and NH4H2PO4 for forming hollowness, CaCO3 for clarifying and homogenization of the glass, boric acid (H3BO3) for thickness adjustment, and SiO2 and Na2CO3 which are main components of soda lime glass; sintering the mixture after stirring the mixture; obtaining glass powder by size after breaking the frozen glass; and manufacturing glass hollow body by using a flame method. In the first step, 50-77.5wt% of SiO2, 0.1-25wt% of H3BO3, 10-45wt% of Na2CO3, 1-10wt% of CaCO3, 5-20wt% of Na2SO4, and 0.5-5wt% of NH4H2PO4 are mixed.
Abstract translation:目的:提供中空玻璃微球的制造方法,通过使用火焰喷涂法合成具有合适比例的玻璃组合物,利用微型容器进行气体保存和绝缘材料。 构成:中空玻璃微球的制造方法包括以下步骤:将Na 2 SO 4和NH 4 H 2 PO 4混合以形成中空,用于澄清和均化玻璃的CaCO 3,用于厚度调节的硼酸(H 3 BO 3))和作为碱石灰的主要成分的SiO 2和Na 2 CO 3 玻璃; 搅拌混合后烧结混合物; 打破冷冻玻璃后,按尺寸获得玻璃粉; 并通过使用火焰法制造玻璃中空体。 在第一步中,将50-77.5wt%的SiO 2,0.1-25wt%的H 3 BO 3,10-45wt%的Na 2 CO 3,1-10wt%的CaCO 3,5-20wt%的Na 2 SO 4和0.5-5wt%的NH 4 H 2 PO 4混合 。
Abstract:
PURPOSE: A microwave system for coal and organic wastes gasification and a method thereof are provided to manufacture synthetic gas using microwave and using low-class coal and organic wastes as raw material and to be suitably used as a future energy supply system preventing the generation of greenhouse gas beforehand. CONSTITUTION: A microwave system for coal and organic waste gasification comprises: a source supplying part(1) which supplies the coal, the organic wastes, and their mixture as raw material; a reaction pipe(2) which performs pretreatment of desulfurization and denitrification using the microwave and gasify pretreated raw material consecutively through a gas-solid reaction; a synthetic gas exhausting part(3) which is installed on the lower part of the reaction pipe; and a rotary valve part(4) which is installed on the lower part of the synthetic gas exhausting part and discharges materials which are completed in the reaction.