Realization of ultrawide omnidirectional photonic band gap in multiple one-dimensional photonic crystals

被引:0
|
作者
Lee, Hyun-Yong [1 ]
Nam, Gi-Yeon [1 ]
机构
[1] Center for Functional Nano Fine Chemicals, Faculty of Applied Chemical Engineering, Chonnam National University, 300 Yongbong Dong, Kwangju 500-757, Korea, Republic of
来源
Journal of Applied Physics | 2006年 / 100卷 / 08期
关键词
Theoretical and experimental investigations have shown that the omnidirectional photonic band gap (omni-PBG) of one-dimensional photonic crystals (1D PCs) can be enlarged by including multiple-periodic structures. These structures; consisting of Si-Si O2 alternating layers with multiple periods; 1; 2; M; have great potential for ultrawide omnireflectors operating in the infrared frequency range. To confirm the effect of multiple periods in the 1D PCs; we prepared two types of 16-pair; SiSi O2 1D PCs with a single period of 1 =426.9 nm and 2 =306.9 nm; and one type of 16-pair 1D PC with double periods-the combination of eight-pair 1 and eight-pair 2. Theoretically; the normalized frequency range for omni-PBG (Δω) in double PC is enhanced by approximately twice that in the single PC. That is; Δω increases from 0.086 to 0.166; which corresponds to the wavelength range (Δλ) from 520 to 980 nm for =407.7 nm. Measured reflectance (R) spectra are in a good agreement with the calculated results. For example; the R spectrum of SiSi O2 double 1D PC (8-pair 1 +8 -pair 2: 1 =426.9 nm; =306.9; nm; and filling factor =0.406) exhibits an ultrawide PBG over the wavelength range of 1050-2500 nm for TE polarization at the incident angle of 5°. © 2006 American Institute of Physics;
D O I
暂无
中图分类号
学科分类号
摘要
Journal article (JA)
引用
收藏
相关论文
共 50 条
  • [1] Realization of ultrawide omnidirectional photonic band gap in multiple one-dimensional photonic crystals
    Lee, Hyun-Yong
    Nam, Gi-Yeon
    JOURNAL OF APPLIED PHYSICS, 2006, 100 (08)
  • [2] Omnidirectional photonic band gap of one-dimensional ternary plasma photonic crystals
    Kong, Xiang-kun
    Liu, Shao-bin
    Zhang, Hai-feng
    Li, Chun-zao
    Bian, Bo-rui
    JOURNAL OF OPTICS, 2011, 13 (03)
  • [3] Properties of omnidirectional photonic band gap in one-dimensional staggered plasma photonic crystals
    Zhang, Hai-feng
    Liu, Shao-bin
    Kong, Xiang-kun
    Bian, Bo-rui
    Zhao, Hui-cao
    OPTICS COMMUNICATIONS, 2012, 285 (24) : 5235 - 5241
  • [4] Omnidirectional photonic band gap broadening in one dimensional photonic crystals
    Changhong, Li
    Huiping, Tian
    Yuefeng, Ji
    Hai, Liu
    PROCEEDINGS OF INTERNATIONAL SYMPOSIUM ON BIOPHOTONICS, NANOPHOTONICS AND METAMATERIALS, 2006, : 388 - +
  • [5] Tunable omnidirectional photonic band gap of one-dimensional photonic crystals containing Dirac semimetals
    Zhao, Yunkun
    Zhang, Yuping
    Guo, Xiaohan
    Liu, Maodong
    Chen, Huan
    Liu, Shande
    Zhang, Huiyun
    JOURNAL OF APPLIED PHYSICS, 2017, 122 (22)
  • [6] Turning photonic band gap of one-dimensional photonic crystals on and off
    Tan, Haiyun
    Zhou, Mingjie
    Zhuge, Lanjian
    Wu, Xuemei
    JOURNAL OF PHYSICS D-APPLIED PHYSICS, 2021, 54 (08)
  • [7] Nonreciprocal omnidirectional band gap of one-dimensional magnetized ferrite photonic crystals with disorder
    Liu, You -Ming
    Wan, Bao-Fei
    Rao, Si-Si
    Zhang, Dan
    Zhang, Hai-Feng
    PHYSICA B-CONDENSED MATTER, 2022, 645
  • [8] Enlargement of the omnidirectional photonic band gap by one-dimensional plasma-dielectric photonic crystals with fractal structure
    Zhang, Hai-Feng
    Liu, Shao-Bin
    OPTICAL AND QUANTUM ELECTRONICS, 2013, 45 (09) : 925 - 936
  • [9] Enlargement of the omnidirectional photonic band gap by one-dimensional plasma-dielectric photonic crystals with fractal structure
    Hai-Feng Zhang
    Shao-Bin Liu
    Optical and Quantum Electronics, 2013, 45 : 925 - 936
  • [10] Photonic and Omnidirectional Band Gap Engineering in One-Dimensional Photonic Crystals Consisting of Linearly Graded Index Material
    Singh, Bipin K.
    Chaudhari, Mayank K.
    Pandey, Praveen C.
    JOURNAL OF LIGHTWAVE TECHNOLOGY, 2016, 34 (10) : 2431 - 2438