화학공학소재연구정보센터
Korean Journal of Materials Research, Vol.24, No.7, 388-392, July, 2014
열 산화법을 이용한 Cu2O 나노선의 대면적 합성
Large-Scale Synthesis of Cu2O Nanowires by Thermal Oxidation Method
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Cu2O nanowires were synthesized at large scale on copper plate by thermal oxidation in air. The effect of oxidation time and temperature on the morphology of the nanowires was examined. The oxidation time had no effect on the diameter of the nanowires, while it had a great effect on the density and the length of the nanowires. The density and the length of the nanowires increased, and then decreased, with increasing oxidation time. The oxidation temperature had a tremendous effect on the size-distribution as well as the density of the nanowires. When the oxidation temperature was 700 oC, uniform sizedistribution and high density of the nanowires was achieved. At lower and higher temperatures, the density of the nanowiresv was lower, and they displayed a broader size-distribution. It is suggested that the Cu2O nanowires were grown via a vaporsolid mechanism because no catalyst particles were observed at the tips of the nanowires.
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