Liquid crystal active nanophotonics and plasmonics: from science to devices

被引:51
|
作者
Abdulhalim, Ibrahim [1 ,2 ]
机构
[1] Ben Gurion Univ Negev, Dept Electroopt Engn, IL-84105 Beer Sheva, Israel
[2] Ilse Katz Inst Nanoscale Sci & Technol, IL-84105 Beer Sheva, Israel
基金
新加坡国家研究基金会;
关键词
liquid crystal devices; nanostructured surfaces; nanoslits; nanoporous silicon; liquid crystal alignment; metal nano particles; glancing angle deposition; quantum dots; plasmonics; nanotubes; SURFACE-PLASMON; PHOTONIC CRYSTALS; ELECTROOPTICAL PROPERTIES; OPTICAL-TRANSMISSION; PLANAR ALIGNMENT; PHASE-TRANSITION; AU NANOPARTICLES; MODULATION; DISPERSION; BEHAVIOR;
D O I
10.1117/1.JNP.6.061001
中图分类号
TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
Liquid crystals (LCs) are made of molecules and layers of small nm sizes, hence by their nature they fall in the categories of nanoscale science, engineering, and technology. Their interaction with solid nanostructures has been a subject of interest since the early days of LC research, as their surface alignment processes are strongly related to the formation of nanogrooves upon mechanical rubbing, nanocolumns by the oblique deposition technique, nanopores in etched surfaces, and the formation of self-assembled nanolayers on solid surfaces. The field has been boosted after the latest developments in nanotechnology both in theoretical simulations and in the possible fabrication of nanoscale structures, such as subwavelength gratings, nanoporous materials, and nanoparticles. A new field of research has emerged that combines LCs with nanostructures. Because LC materials are switchable, a new family of active plasmonic and nanophotonic devices is emerging. Interesting fundamental research phenomena are being reported, as well as the development of improved devices. The interaction of LCs with nanostructures is not only of fundamental interest but can also be applied for novel devices. (C) 2012 Society of Photo-Optical Instrumentation Engineers (SPIE). [DOI: 10.1117/1.JNP.6.061001]
引用
收藏
页数:27
相关论文
共 50 条
  • [31] Dichroic Dyes for Liquid Crystal Devices
    Ivashchenko, A.
    Titov, V.
    MOLECULAR CRYSTALS AND LIQUID CRYSTALS, 1991, 202 : 13 - 16
  • [32] Topology and bistability in liquid crystal devices
    Majumdar, A.
    Newton, C. J. P.
    Robbins, J. M.
    Zyskin, M.
    PHYSICAL REVIEW E, 2007, 75 (05):
  • [33] The fabrication of ferroelectric liquid crystal devices
    Xu, KS
    Lu, RB
    Xing, ZQ
    Zhan, SY
    Gu, X
    Zhang, YD
    SELECTED PAPER FROM INTERNATIONAL CONFERENCE ON OPTICS AND OPTOELECTRONICS '98: SILVER JUBILEE SYMPOSIUM OF THE OPTICAL SOCIETY OF INDIA, 1999, 3729 : 94 - 100
  • [34] Liquid crystal devices for photonics applications
    Chigrinov, Vladimir G.
    PASSIVE COMPONENTS AND FIBER-BASED DEVICES IV, PTS 1 AND 2, 2007, 6781
  • [35] Mathematical modeling of liquid crystal devices
    Wu, TX
    Hong, Q
    Wang, HY
    Lu, RB
    Zhu, XY
    Huang, YH
    Ge, ZB
    Wu, ST
    10TH INTERNATIONAL CONFERENCE ON MATHEMATICAL METHODS IN ELECTROMAGNETIC THEORY, CONFERENCE PROCEEDINGS, 2004, : 82 - 87
  • [36] PHYSICS OF LIQUID-CRYSTAL DEVICES
    KAHN, FJ
    BULLETIN OF THE AMERICAN PHYSICAL SOCIETY, 1973, 18 (01): : 128 - 128
  • [37] Optical computing with liquid crystal devices
    Brackenbury, L. E. M.
    Mason, K. B.
    JOURNAL OF PHYSICS D-APPLIED PHYSICS, 1988, 21 (10) : S153 - S155
  • [38] LIQUID-CRYSTAL DISPLAY DEVICES
    HEILMEIER, GH
    SCIENTIFIC AMERICAN, 1970, 222 (04) : 100 - +
  • [39] Modeling nematohydrodynamics in liquid crystal devices
    Tóth, G
    Denniston, C
    Yeomans, JM
    COMPUTER PHYSICS COMMUNICATIONS, 2002, 147 (1-2) : 7 - 12
  • [40] Liquid crystal aberration compensation devices
    Stallinga, S
    Vrehen, J
    Wals, J
    Stapert, H
    Verstegen, E
    OPTICAL STORAGE AND OPTICAL INFORMATION PROCESSING, 2000, 4081 : 50 - 59