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Optical receiving system based on a compound parabolic concentrator and a hemispherical lens for visible light communication

机译:基于复合抛物型浓缩器的光接收系统和用于可见光通信的半球形镜片

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摘要

We propose a scheme for designing a new optical receiving system that can reduce the received-energy spot size via integration of a compound parabolic concentrator with a hemispherical lens. SolidWorks is used to model the receiving system, while TracePro is employed for simulations. The field of view is set to 30 degrees and the radius of the compound parabolic concentrator outlet is 5 mm, which is also the radius of the hemispherical lens. Ray-tracing results show that under the given simulation conditions, the radius of the spot area is reduced from 5 to 3 mm at the receiving system and the gain is 5.2. In regard to the relations between received power and the radius of the hemispherical lens R, and the received power and the distance d between the compound parabolic concentrator and hemispherical lens, our detailed analysis yields the following characteristics: (1) the received power increases as R increases, but decreases as d increases; (2) as R increases, the spot area increases and the received flux is dispersed over the receiving plane, which dispersion is disadvantageous for high-speed communication; (3) the gain of the receiving system also varies with R and d; (4) an increase in d leads to decrease in the received flux and gain when d > -2 mm. Based on these characteristics, we set R = 5 mm and calculate the energy efficiency. We obtain maximum energy efficiencies for different detection areas. (C) 2016 Optical Society of America
机译:我们提出了一种设计一种设计一种新的光学接收系统,其可以通过与半球形透镜的复合抛物线集中器集成来减少接收的节能点尺寸。 SolidWorks用于模拟接收系统,而TracePro用于模拟。视场设定为30度,复合抛物线浓缩器出口的半径为5mm,这也是半球形透镜的半径。射线跟踪结果表明,在给定的仿真条件下,斑点区域的半径在接收系统的5至3mm下降,增益为5.2。关于接收功率与半球形透镜的半径之间的关系,以及复合抛物线浓缩器和半球形镜片之间的接收功率和距离D,我们的详细分析会产生以下特点:(1)接收功率增加增加,但随着D的增加而降低; (2)随着R增加,点面积增加,并且接收的通量分散在接收平面上,这对高速连通的分散是不利的; (3)接收系统的增益也因R和D而变化; (4)D的增加导致在接受的助焊剂中降低,并且当D> -2mm时的收益。基于这些特性,我们设定了r = 5 mm并计算能效。我们获得不同检测区域的最大能量效率。 (c)2016年美国光学学会

著录项

  • 来源
    《Applied optics》 |2016年第36期|共10页
  • 作者

    Wang Yun; Lan Tian; Ni Guoqiang;

  • 作者单位

    Beijing Inst Technol Sch Optoelect Minist Educ China Key Lab Photoelect Imaging Technol &

    Syst Beijing 100081 Peoples R China;

    Beijing Inst Technol Sch Optoelect Minist Educ China Key Lab Photoelect Imaging Technol &

    Syst Beijing 100081 Peoples R China;

    Beijing Inst Technol Sch Optoelect Minist Educ China Key Lab Photoelect Imaging Technol &

    Syst Beijing 100081 Peoples R China;

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  • 正文语种 eng
  • 中图分类 应用;
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