超材料
维基百科,自由的百科全书
超材料指的是一类具有特殊性质的人造材料,这些材料是自然界没有的。它们拥有一些特别的性质,比如让光、电磁波改变它们的通常性质,而这样的效果是传统材料无法实现的。超材料的成分上没有什么特别之处,它们的奇特性质源于其精密的几何结构以及尺寸大小。其中的微结构,大小尺度小于它作用的波长,因此得以对波施加影响[3][4][5]。 对于超材料的初步研究是负折射率超材料[6][7][8]
超材料的奇异性质使它具有广泛的应用前景,从高接收率天线,雷达反射罩甚至是地震预警。[9][10][11][12][13]
超材料是一个跨学科的课题,囊括电子工程,凝聚态物理,微波,光电子学、经典光学、材料科学、半导体科学以及纳米科技等等[4]。
目录 |
电磁超材料 [编辑]
负折射率超材料 [编辑]
超材料的分类 [编辑]
历史 [编辑]
超材料是在二战后和微波工程中的人造介质一同发展起来的,但是其萌芽可追溯到19世纪末期人们对控制电磁波的渴望。
应用 [编辑]
太赫兹领域 [编辑]
光量子领域 [编辑]
折射率调节 [编辑]
天线 [编辑]
非线性材料 [编辑]
超透镜 [编辑]
地震测量 [编辑]
参见 [编辑]
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- Academic journals
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- Metamaterials books
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参考 [编辑]
- ^ Shelby, R. A.; Smith D.R.; Shultz S.; Nemat-Nasser S.C. Microwave transmission through a two-dimensional, isotropic, left-handed metamaterial. Applied Physics Letters. 2001, 78 (4): 489. Bibcode:2001ApPhL..78..489S. doi:10.1063/1.1343489.[失效連結]
- ^ Smith, D. R.; Padilla, WJ; Vier, DC; Nemat-Nasser, SC; Schultz, S. Composite Medium with Simultaneously Negative Permeability and Permittivity. Physical Review Letters. 2000, 84 (18): 4184–7. Bibcode:2000PhRvL..84.4184S. doi:10.1103/PhysRevLett.84.4184. PMID 10990641.
- ^ Engheta, Nader; Richard W. Ziolkowski. Metamaterials: Physics and Engineering Explorations. Wiley & Sons. 2006-06: xv, 3–30, 37, 143–150, 215–234, 240–256. ISBN 978-0-471-76102-0.
- ^ 引用错误:无效
<ref>标签;未为name属性为metamaterialplasmonics1的引用提供文字 - ^ Smith, David R.. What are Electromagnetic Metamaterials?. Novel Electromagnetic Materials. The research group of D.R. Smith. 2006-06-10 [2009-08-19].
- ^ Shelby, R. A.; Smith, DR; Schultz, S; Smith D.R; Shultz S. Experimental Verification of a Negative Index of Refraction. Science. 2001, 292 (5514): 77
|pages=或|at=多余 (帮助). Bibcode:2001Sci...292...77S. doi:10.1126/science.1058847. PMID 11292865.|last1=和|last=只需其一 (帮助);|first1=和|first=只需其一 (帮助) - ^ Pendry, John B.. Negative Refraction. Contemporary Physics (Princeton University Press). 2004, 45 (3): 191–202 [2009-08-26]. Bibcode:2004ConPh..45..191P. doi:10.1080/00107510410001667434. ISBN 0-691-12347-0.
- ^ Veselago, V. G. The electrodynamics of substances with simultaneously negative values of [permittivity] and [permeability]. Soviet Physics Uspekhi. 1968, 10 (4): 509–514. Bibcode:1968SvPhU..10..509V. doi:10.1070/PU1968v010n04ABEH003699.
- ^ 引用错误:无效
<ref>标签;未为name属性为control_elastic_waves的引用提供文字 - ^ Smith, David R; Research group. Novel Electromagnetic Materials program. 2005-01-16 [2009-08-17].
- ^ Rainsford, Tamath J.; Samuel P. Mickan, and D. Abbott. T-ray sensing applications: review of global developments. Proc. SPIE (Conference Location: Sydney, Australia 2004-12-13: The International Society for Optical Engineering). 9 March 2005,. 5649 Smart Structures, Devices, and Systems II (Poster session): 826
|pages=或|at=多余 (帮助). doi:10.1117/12.607746. - ^ Cotton, Micheal G. Applied Electromagnetics. 2003 Technical Progress Report (NITA – ITS) (Boulder, CO, USA: NITA – Institute for Telecommunication Sciences). 2003-12,. Telecommunications Theory (3): 4–5 [2009-09-14].
- ^ 引用错误:无效
<ref>标签;未为name属性为radiation-properties的引用提供文字
外部链接 [编辑]
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- Educational pages on metamaterials:
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- Nanophotonics group. Prof. Min Qiu. Royal Institute of Technology (KTH). Sweden.
- ETA research group. Prof. Christophe Caloz. Polytechnique Montréal.
- Metamaterials. Electromagnetics Group. George Eleftheriades. University of Toronto.
- The Engheta Group. Nader Engheta. University of Pennsylvania.
- Electromagnetic Metamaterials. Fraunhofer FHR. Germany.
- Antennas Research Group. Prof. Yang Hao. University of London.
- Inano Group. Prof. M. Saif Islam. UC Davis.
- Mediums with Negative Phase Velocity. Prof. Akhlesh Lakhtakia. Penn State University.
- Condensed Matter Theory Group. Sir John Pendry. Imperial College. London.
- Computational Nano Materials Group Viktor Podolskiy (Assoc. Prof.). UMass Lowell.
- Shvets Research Group, University of Texas at Austin – US
- David Smith's research group — Duke University — US
- Costas Soukoulis at IESL, Greece — Photonic, Phononic & MetaMaterials Group
- Srinivas Sridhar's Group Northeastern University
- Irina Veretennicoff's research group, Vrije Universiteit Brussel — Belgium
- Christophe Craeye's research group – Belgium
- Martin Wegener's Metamaterials group Universität Karlsruhe (TH) — Germany
- Georgios Zouganelis's Metamaterials Group – NIT — Japan]
- Xiang Zhang's group – UC Berkeley – US
- Sergei Tretyakov's group – Helsinki University of Technology, Finland
- Gengkai Hu's group – Beijing Institute of Technology, (PRC)
- Institute of Applied Phyisical Problems – BSU – Belarus]
- Centre for Photonic Metamaterials, University of Southhampton
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- Internet portals:
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- Scholar Google profile on metamaterials
- MetaMaterials.net Web Group
- Center for Metamaterials and Integrated Plasmonics, Duke University
- Journal "Metamaterials" published by Elsevier (homepage)
- Online articles: "Metamaterials" in ScienceDirect
- RSS feed for Metamaterials articles published in Physical Review Journals
- Virtual Institute for Artificial Electromagnetic Materials and Metamaterials ("METAMORPHOSE VI AISBL")
- European Network of Excellence "METAMORPHOSE" on Metamaterials
- SensorMetrix Formed with a specific directive to exploit the recent advances in electromagnetic metamaterials
- Metamaterials collection on IOPscience (IOP Publishing)
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- More articles and presentations:
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- Dr. Sebastien Guenneau. Research on Metamaterials and Photonic Crystal Fibres
- UWB Tunable Delay System, Prof Christophe Caloz, Ecole Polytechnique, Montreal
- What are Metamaterials ? An index page by Dr. Stefan Linden and Prof. Dr. Martin Wegener
- Raytracing Metamaterials (demonstrations)
- Multifunctionality.
- Cloaking devices, nihility bandgap, LF magnetic enhancement, perfect radome NIT Japan
- Left-Handed Flat Lens HFSS Tutorial Electromagnetism Tutorial
- Journal of Optics A, February 2005 Special issue on Metamaterials
- Experimental Verification of a Negative Index of Refraction
- How To Make an Object Invisible
- Metamaterials hold key to cloak of invisibility