Narrowband optical filter design for DWDM communication applications based on Generalized Aperiodic Thue-Morse structures

被引:17
|
作者
Zirak-Gharamaleki, S. [1 ,2 ]
机构
[1] Islamic Azad Univ Tabriz, Dept Elect Engn, Young Researchers Club Tabriz Branch, Tabriz, Iran
[2] Iranian Oil Pipeline & Telecommun Co, Tehran, Iran
关键词
Optical filter; Narrowband; Multi channel; DWDM; Transmission; Bandwidth; Multilayer; Crosstalk; Bandpass;
D O I
10.1016/j.optcom.2010.09.045
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
We present here a novel proposal for multichannel narrowband DWDM filter design, based on Generalized Aperiodic Thue-Morse (GATM) multilayer structures. Transmission spectra of light propagation through these structures are studied in this article. Numerical simulations in this research show an ultra high efficiency and a very low crosstalk for this filter so that the total transmission of filter output channels is up to 100% and the range of output wavelength is 1550 nm which is suitable for DWDM communication systems. By studying the effects of parameters of GATM structure, we realized that by varying parameters such as number of layers, distance between layers, refractive index of layers, etc., a suitable DWDM filter can be accomplished, which is in accordance with the communication ITU-T standard. This narrowband DWDM filter has capability of changing the number of channels and the bandwidth of each channel, at the special wavelength. By changing the thickness of each layer, the transmittance wavelength of the filter will change. The main advantage of the Thue-Morse structure is the numbers of selective layers, which in our designed structure, we choose GATM (3,2) where m = 3 and n = 2 in B(m)A(n), and for the first time we change both m and n simultaneously in the proposed structure to control optical properties of the introduced filter. (C) 2010 Elsevier B.V. All rights reserved.
引用
收藏
页码:579 / 584
页数:6
相关论文
共 50 条
  • [1] Multi Channel Narrowband DWDM Optical Filters Based on Generalized Aperiodic Thue-Morse Structures
    Rostami, A.
    Gharamaleki, S. Zirak
    Banaei, H. Alipour
    Haddadpour, A.
    Ghanbari, A.
    Janabi-Sharifi, F.
    ISOT: 2009 INTERNATIONAL SYMPOSIUM ON OPTOMECHATRONIC TECHNOLOGIES, 2009, : 245 - +
  • [2] Special optical communication filter based on Thue-Morse photonic crystal structure
    Alipour-Banaei, Hamed
    Serajmohammadi, Somaye
    Mehdizadeh, Farhad
    Hassangholizadeh-Kashtiban, Mahdi
    OPTICA APPLICATA, 2016, 46 (01) : 145 - 152
  • [3] Hidden dimers and their effect on the optical and electronic transmission in Thue-Morse aperiodic structures
    Chattopadhyay, S
    Chakrabarti, A
    JOURNAL OF PHYSICS-CONDENSED MATTER, 2000, 12 (26) : 5681 - 5689
  • [4] WDM and DWDM optical filter based on 2D photonic crystal Thue-Morse structure
    Alipour-Banaei, Hamed
    Hassangholizadeh-Kashtiban, Mandi
    Mehdizadeh, Farhad
    OPTIK, 2013, 124 (20): : 4416 - 4420
  • [5] The giant enhancement of nonreciprocal radiation in Thue-morse aperiodic structures
    Wu, Jun
    Wang, Zhongmin
    Wu, Biyuan
    Shi, Zhangxing
    Wu, Xiaohu
    OPTICS AND LASER TECHNOLOGY, 2022, 152
  • [6] Tunable narrowband optical filters using superconductor/dielectric generalized Thue-Morse photonic crystals
    Trabelsi, Youssef
    Ben Ali, Naim
    Kanzari, Mounir
    MICROELECTRONIC ENGINEERING, 2019, 213 : 41 - 46
  • [7] TUNABLE FILTER BASED UPON THUE-MORSE PHOTONIC CRYSTAL STRUCTURES
    Meradi, K. A.
    Tayeboun, F.
    JOURNAL OF RUSSIAN LASER RESEARCH, 2015, 36 (04) : 364 - 370
  • [8] Optical transmission through generalized Thue-Morse superlattices
    Yang, Xiangbo
    Chen, Fuming
    Xing, Da
    ZEITSCHRIFT FUR KRISTALLOGRAPHIE, 2009, 224 (1-2): : 85 - 90
  • [9] Optical bistability in aperiodic multilayer composed of graphene and Thue-Morse lattices
    Ni, Hao
    Wang, Juntao
    Wu, Aixia
    OPTIK, 2021, 242
  • [10] Light transport in planar dielectric optical waveguides based on the aperiodic Thue-Morse sequence
    Hiltunen, Marianne
    Michel, Jurgen
    Dal Negro, Luca
    PHOTONIC CRYSTAL MATERIALS AND DEVICES VIII, 2008, 6989