Advanced liquid crystal-based switchable optical devices for light protection applications: principles and strategies

被引:0
|
作者
Ruicong Zhang
Zhibo Zhang
Jiecai Han
Lei Yang
Jiajun li
Zicheng Song
Tianyu Wang
Jiaqi Zhu
机构
[1] Harbin Institute of Technology,National Key Laboratory of Science and Technology on Advanced Composites in Special Environments
[2] Harbin Institute of Technology,Research Center of Analysis and Measurement
[3] Harbin Institute of Technology,School of Energy Science & Engineering
[4] Ministry of Education,Key Laboratory of Micro
关键词
D O I
暂无
中图分类号
学科分类号
摘要
With the development of optical technologies, transparent materials that provide protection from light have received considerable attention from scholars. As important channels for external light, windows play a vital role in the regulation of light in buildings, vehicles, and aircrafts. There is a need for windows with switchable optical properties to prevent or attenuate damage or interference to the human eye and light-sensitive instruments by inappropriate optical radiation. In this context, liquid crystals (LCs), owing to their rich responsiveness and unique optical properties, have been considered among the best candidates for advanced light protection materials. In this review, we provide an overview of advances in research on LC-based methods for protection against light. First, we introduce the characteristics of different light sources and their protection requirements. Second, we introduce several classes of light modulation principles based on liquid crystal materials and demonstrate the feasibility of using them for light protection. In addition, we discuss current light protection strategies based on liquid crystal materials for different applications. Finally, we discuss the problems and shortcomings of current strategies. We propose several suggestions for the development of liquid crystal materials in the field of light protection.
引用
收藏
相关论文
共 50 条
  • [21] A liquid crystal-based sensitive element for optical sensors of cholesterol
    Vistak M.V.
    Dmytrakh V.E.
    Mykytyuk Z.M.
    Petryshak V.S.
    Horbenko Y.Y.
    Functional Materials, 2017, 24 (04): : 687 - 691
  • [22] Characterization of optical polarization properties for liquid crystal-based retarders
    Lopez-Tellez, Juan M.
    Bruce, Neil C.
    Rodriguez-Herrera, Oscar G.
    APPLIED OPTICS, 2016, 55 (22) : 6025 - 6033
  • [23] Diagnosis of tuberculosis using a liquid crystal-based optical sensor
    Hyeong Jin Kim
    Jinseob Rim
    Chang-Hyun Jang
    Macromolecular Research, 2016, 24 : 123 - 130
  • [24] Featuring advanced translational strategies: Principles, techniques, devices and applications
    Liu, Zhe
    CANCER LETTERS, 2020, 489 : 133 - 134
  • [25] Liquid crystal-based beam switchable three-element microstrip parasitic array
    Xu, Guanghui
    Yang, Li-Xia
    Huang, Zhi-Xiang
    Peng, Hong-Li
    Yin, Wen-Yan
    IET MICROWAVES ANTENNAS & PROPAGATION, 2020, 14 (14) : 1857 - 1861
  • [26] Liquid crystal-based optical space switches for DWDM network
    Gravey, P
    de la Tocnaye, JLD
    Fracasso, B
    Wolffer, N
    Tan, A
    Vinouze, B
    Razzak, M
    Kali, A
    ANNALES DES TELECOMMUNICATIONS-ANNALS OF TELECOMMUNICATIONS, 2003, 58 (9-10): : 1378 - 1400
  • [27] Switchable optical metasurfaces based on nematic liquid crystal
    Kasyanova, Irina
    Gorkunov, Maxim
    Artemov, Vladimir
    Mamonova, Alena
    Ezhov, Alexander
    Geivandov, Artur
    Palto, Serguei
    METAMATERIALS XII, 2019, 11025
  • [28] LIQUID-CRYSTAL-BASED SWITCHABLE POLARIZERS FOR SENSOR PROTECTION
    WU, CS
    WU, ST
    APPLIED OPTICS, 1995, 34 (31): : 7221 - 7227
  • [29] Electrically switchable photonic liquid crystal devices for routing of a polarized light wave
    Rushnova, Irina I.
    Melnikova, Elena A.
    Tolstik, Alexei L.
    Muravsky, Alexander A.
    OPTICS COMMUNICATIONS, 2018, 413 : 179 - 183
  • [30] Switchable Spatial Control of Linearly Polarized Light Based on a Liquid-crystal Optical Waveguide
    Zha, Zhengtao
    Zhang, Qianshu
    CURRENT OPTICS AND PHOTONICS, 2023, 7 (01) : 83 - 89