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      KCI등재 SCOPUS SCIE

      NaF 전해질 양극산화에 의한 마이크로콘 구조 니오븀 산화물 제조 = Formation of Nb<sub>2</sub>O<sub>5</sub> Microcone Structure in NaF Electrolyte by Anodization

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      https://www.riss.kr/link?id=A105209487

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      다국어 초록 (Multilingual Abstract)

      In this study, we show that by anodization of Nb in NaF electrolytes microcone niobium oxide layers can be formed under a range of experimental conditions. It is found that a single NaF electrolyte leads to the formation of microcones. At 1 M NaF, 40 V, 1 h, well-ordered microcones were generated on Nb discs. XRD results show that the initially formed anodic oxide is amorphous, but an amorphous to crystalline transition occurs during anodization. For the formation of favorable microcones, it is considered that proper parameters such as electrolyte concentration, voltage, anodizing time are necessary according to the kind of electrolytes.
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      In this study, we show that by anodization of Nb in NaF electrolytes microcone niobium oxide layers can be formed under a range of experimental conditions. It is found that a single NaF electrolyte leads to the formation of microcones. At 1 M NaF, 40 ...

      In this study, we show that by anodization of Nb in NaF electrolytes microcone niobium oxide layers can be formed under a range of experimental conditions. It is found that a single NaF electrolyte leads to the formation of microcones. At 1 M NaF, 40 V, 1 h, well-ordered microcones were generated on Nb discs. XRD results show that the initially formed anodic oxide is amorphous, but an amorphous to crystalline transition occurs during anodization. For the formation of favorable microcones, it is considered that proper parameters such as electrolyte concentration, voltage, anodizing time are necessary according to the kind of electrolytes.

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      참고문헌 (Reference)

      1 A. Ghicov, "TitaniumOxide Nanotubes Prepared in Phosphate Electrolytes" 7 (7): 49-52, 2005

      2 N. F. Jackson, "The Use of Niobium as anAnode Material in Liquid Filled Electrolytic Capacitors" 1 : 27-37, 1974

      3 D. A. Vermilyea, "The Crystallization of Anodic TantalumOxide Films in the Presence of a Strong Electric Field" 102 (102): 207-214, 1955

      4 J. P. S. Pringle, "The Anodic Oxidation of SuperimposedMetallic Layers: Theory" 25 (25): 1423-1437, 1980

      5 H. Tsuchiya, "Self-Organized Porous WO3Formed in NaF Electrolytes" 7 (7): 295-298, 2005

      6 H. Tsuchiya, "Self-Organized High-Aspect-Ratio Nanoporous Zirconium OxidesPrepared by Electrochemical Anodization" 1 (1): 722-725, 2005

      7 H. Tsuchiya, "Self-Organized High AspectRatio Porous Hafnium Oxide Prepared by ElectrochemicalAnodization" 7 (7): 49-2005, 2005

      8 O. Jessensky, "Self-Organized Formationof Hexagonal Pore Arrays in Anodic Alumina" 72 (72): 1173-1175, 1998

      9 H. Masuda, "Self-Ordering of CellConfiguration of Anodic Porous Alumina with Large-SizePores in Phosphoric Acid Solution" 37 (37): 1340-1342, 1998

      10 H. Masuda, "Self-Ordering of CellArrangement of Anodic Porous Alumina Formed in SulfuricAcid Solution" 144 (144): 127-130, 1997

      1 A. Ghicov, "TitaniumOxide Nanotubes Prepared in Phosphate Electrolytes" 7 (7): 49-52, 2005

      2 N. F. Jackson, "The Use of Niobium as anAnode Material in Liquid Filled Electrolytic Capacitors" 1 : 27-37, 1974

      3 D. A. Vermilyea, "The Crystallization of Anodic TantalumOxide Films in the Presence of a Strong Electric Field" 102 (102): 207-214, 1955

      4 J. P. S. Pringle, "The Anodic Oxidation of SuperimposedMetallic Layers: Theory" 25 (25): 1423-1437, 1980

      5 H. Tsuchiya, "Self-Organized Porous WO3Formed in NaF Electrolytes" 7 (7): 295-298, 2005

      6 H. Tsuchiya, "Self-Organized High-Aspect-Ratio Nanoporous Zirconium OxidesPrepared by Electrochemical Anodization" 1 (1): 722-725, 2005

      7 H. Tsuchiya, "Self-Organized High AspectRatio Porous Hafnium Oxide Prepared by ElectrochemicalAnodization" 7 (7): 49-2005, 2005

      8 O. Jessensky, "Self-Organized Formationof Hexagonal Pore Arrays in Anodic Alumina" 72 (72): 1173-1175, 1998

      9 H. Masuda, "Self-Ordering of CellConfiguration of Anodic Porous Alumina with Large-SizePores in Phosphoric Acid Solution" 37 (37): 1340-1342, 1998

      10 H. Masuda, "Self-Ordering of CellArrangement of Anodic Porous Alumina Formed in SulfuricAcid Solution" 144 (144): 127-130, 1997

      11 Robert L. Karlinsey, "Self-Assembled Nb2O5 Microconeswith Tailored Crystallinity" 41 (41): 5017-5020, 2006

      12 Y. Oikawa, "Preparation of Self-Organized Porous Anodic Niobium OxideMicrocones and Their Surface Wettability" 57 (57): 3941-3946, 2009

      13 R. L. Karlinsey, "Preparation of Self-Organized Niobium OxideMicrostructures via Potentiostatic Anodization" 7 (7): 1190-1194, 2005

      14 J. Choi, "Porous Niobium Oxide Films Prepared by Anodizationin HF/H3PO4" 51 (51): 507-, 2006

      15 H. Masuda, "Ordered Metal Nanohole ArraysMade by a Two-Step Replication of Honeycomb Structuresof Anodic Alumina" 268 (268): 1466-1468, 1995

      16 K. Nagahara, "Mechanism of Formation and Growth of Sunflower-Shaped Imperfections in Anodic Oxide Films on Niobium" 52 (52): 2134-2145, 2004

      17 T. Miyazaki, "Induction and Acceleration of Bonelike ApatiteFormation on Tantalum Oxide Gel in Simulated Body Fluid" 21 (21): 83-88, 2001

      18 H. Habazaki, "Importance of Water Contentin Formation of Porous Anodic Niobium Oxide Films in HotPhosphate-Glycerol Electrolyte" 54 (54): 946-951, 2009

      19 H. Masuda, "Highly Ordered Nanochannel-Array Architecturein Anodic Alumina" 71 (71): 2770-2772, 1997

      20 A. P. Li, "HexagonalPore Arrays with a 50-420 nm Interpore DistanceFormed by Self-Organization in Anodic Alumina" 84 (84): 6023-6026, 1998

      21 I. Sieber, "Formationof Self-Organized Niobium Porous Oxide on Niobium" 7 (7): 97-100, 2005

      22 H. Hanazaki, "Field Crystallization of Anodic Niobia" 49 (49): 580-593, 2007

      23 S. Yang, "Effect of ElectrolyteTemperature on the Formation of Self-Organized Anodic NiobiumOxide Microcones in Hot Phosphate-Glycerol Electrolyte" 257 (257): 8190-8195, 2011

      24 D. M. Lakhiani, "Crystallization of AmorphousNiobium Oxide During Anodic Oxidation" 188 : 49-50, 1960

      25 K. Shimizu, "A Novel Marker for the Determination of Transport NumbersDuring Anodic Barrier Oxide Growth on Aluminium" 64 (64): 345-353, 1991

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