군용 수중 운동물체의 성능강화를 위한 초소수성 나노 패터닝 기술
Superhydrophobic Nano Patterning Techniques for Enhanced Performance of Naval Underwater Vessels
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초록
A superhydrophobic surface means that the contact angle between the solid surface and a water droplet is more than 150°. Materials with a superhydrophobic surface have a self.cleaning function because of the Lotus effect, in which water is not absorbed by the material but rolls off of it. If such a Lotus effect can be applied to the surface of underwater vessels, submarines, torpedos, and so on, enhanced vessels can be made based on this lubricant effect reducing the friction coefficient for the liquid. Because polymer composites can be easily applied in various nanotechniques, they are more advantageous than conventional materials like iron in terms of a superhydrophobic surface. Furthermore, a superhydrophobic surface bring enhanced anticorrosion and ecotechnology because no paint is needed on underwater vessels.
Abstract
A superhydrophobic surface means that the contact angle between the solid surface and a water droplet is more than 150°. Materials with a superhydrophobic surface have a self.cleaning function because of the Lotus effect, in which water is not absorbed by the material but rolls off of it. If such a Lotus effect can be applied to the surface of underwater vessels, submarines, torpedos, and so on, enhanced vessels can be made based on this lubricant effect reducing the friction coefficient for the liquid. Because polymer composites can be easily applied in various nanotechniques, they are more advantageous than conventional materials like iron in terms of a superhydrophobic surface. Furthermore, a superhydrophobic surface bring enhanced anticorrosion and ecotechnology because no paint is needed on underwater vessels.
참고문헌 (18)
- Barthlott, W., "Purity of the Sacred Lotus, or Escape from Contamination in Biological Surface", Plnata, 202(1), pp.1~8 (1997)
- Blossey, R., "Self-cleaning Surfaces-virtual Realities", Nature Materials, 2(5), pp.301~306 (2003)
- Chow, T. S., "Wetting of Rough Surfaces", Journal of Physics : Condensed Matter, 10(27), pp.445~452 (1998)
- Feng, L., "Creation of a Super-hydrophobic Surface from an Amphiphilic Polymer", Angewandte Chemie, 115(7), pp.824~826 (2003)
- Gao, L., "A Perfect Hydrophobic Surface", Journal of the American Chemical Society, 128(28), pp.9052~9053 (2006)
- Genaer, J., "Recent Developments in Superhydrophobic Surfaces and Their Televance to Marine Fouling : a Review", The Journal of Bioadhension and Biofilm Research, 22(5), pp.339~360 (2006)
- Hosono, E., "Superhydrophobic Perpendicular Nanopin Film by Bottom-up Process", Journal of the American Chemical Society, 127(39), pp.13458~13459 (2005)
- Jisr, R. M., "Hydrophobic and Ultrahydrophobic Multilayer Thin Films Perfluorinated Polyelectrolites", Angewandte Chemie Int. Ed, 44(5), pp.782~785 (2005)
- Li, X., "What Do We Need for a Super-hydrophobic Surface? a Review on the Recent Progress in the Preparation of Super-hydrophobic Surfaces", Chem. Soc. Rev., 36, pp.1350~1368 (2007)
- Martines, E., "Super-hydrophobic and Super-hydrophilicity of Regular Nano-patterns", Nano Letters, 5(10), pp.2097~2103 (2005)
- Minko, S. Muller, M., "Two-level Structured Self-adoptive Surfaces with Reversibly Turnable Properties", Journal of the American Chemistry Society, 125(13), pp.3896~3900 (2003)
- Neinhuis, C., "Characterization and Distribution of Water-repellent, Self-cleaning Plant Surfaces", Annals of Botany, 79(6), pp.667~678 (1997)
- Sharfrin, E., "Constitutive Relations in the Wetting of Low Energy Surfaces and the Theory of the Retraction Method of Preparing Mono-layers", The Journal of Physical Chemistry, 64(5), pp.519~524 (1960)
- 서창민, "초음파 나노 표면개질 기술의 정하중 레벨이 SKD61 강의 피로특성에 미치는 영향", 한국해양공학회지, 22(2), pp.99~105 (2008), 한국해양공학회
- 서창민, "초음파 나노표면개질을 적용한 궤도차량용 토션바 제조 및 재제조용 표면 개질기술에 관한 연구", 한국해양공학회지, 25(6), pp.80~85 (2011), 한국해양공학회
- Sun, M., "Artificial Lotus Leaf by Nano-casting", Langmuir, 21(9), pp.8978~8981 (2005)
- Zhang, W., "Fabrication of Superhydrophobic Surface from Binary Colloidal Assembly", Langmuir, 21(20), pp.9143~9148 (2005)
- Zhang, X., "Superhydrophobic Surface: from Structure Control to Functional Application", J. Mater. Chem, 18, pp.621~633 (2008)
