Dynamic mutation enhanced greedy strategy for wavefront shaping

被引:1
|
作者
Zhang, Chuncheng [1 ]
Yao, Zheyi [1 ]
Liu, Tingting [1 ]
Sui, Xiubao [1 ]
Chen, Qian [1 ]
Xie, Zhihua [2 ]
Liu, Guodong [2 ]
机构
[1] Nanjing Univ Sci & Technol, Sch Elect Engn & Optoelect Technol, Nanjing 210094, Peoples R China
[2] Jiangxi Sci & Technol Normal Univ, Key Lab Opt Elect & Commun, Nanchang 330013, Peoples R China
来源
关键词
wavefront shaping; greedy strategy; dynamic mutation; OPTIMIZATION; ALGORITHM; LIGHT; MEDIA;
D O I
10.1016/j.optlastec.2023.110018
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
Optical focusing through scattering media plays a significant role in various fields, such as medicine, communications, and detection. Over recent years, population optimization algorithms have been successfully applied to these fields with remarkable results. However, the current algorithms have limitations, such as offspring inheriting bad genes from their parent, parameter-tuning, and complex operation mechanisms. To address these challenges, we propose the mutate greedy algorithm (MGA), which innovatively combines greedy strategy with real-time feedback of mutation rate. MGA can achieve fast convergence speed and high enhancement by balancing the contradiction between greedy strategy and population diversity. There is only one parameter, i.e., population size, to adjust in the MGA. The MGA structure is simple and can save many computational resources. Our research is expected to advance wavefront shaping from laboratory to practical applications.
引用
收藏
页数:6
相关论文
共 50 条
  • [31] Wavefront shaping to correct intraocular scattering
    Artal, Pablo
    Arias, Augusto
    Fernandez, Enrique
    ADAPTIVE OPTICS AND WAVEFRONT CONTROL FOR BIOLOGICAL SYSTEMS IV, 2018, 10502
  • [32] Mode conversion via wavefront shaping
    Daniel, Anat
    Song, Xin Bing
    Oron, Dan
    Silberberg, Yaron
    OPTICS EXPRESS, 2018, 26 (17): : 22208 - 22217
  • [33] Greedy-based dynamic channel assignment strategy for cellular mobile networks
    Fang, XM
    Zhu, CQ
    Fan, PZ
    IEEE COMMUNICATIONS LETTERS, 2000, 4 (07) : 215 - 217
  • [34] Combining a hybrid prediction strategy and a mutation strategy for dynamic multiobjective optimization
    Chen, Ying
    Zou, Juan
    Liu, Yuan
    Yang, Shengxiang
    Zheng, Jinhua
    Huang, Weixiong
    SWARM AND EVOLUTIONARY COMPUTATION, 2022, 70
  • [35] An enhanced harmony search integrated with adaptive mutation strategy
    Deng, Ying
    Zhong, Yiwen
    Wang, Lijin
    INTERNATIONAL JOURNAL OF COMPUTING SCIENCE AND MATHEMATICS, 2022, 16 (02) : 136 - 148
  • [36] Multi-point optical focusing based on enhanced multi-objective optimized wavefront shaping
    Hu, Yue
    Hu, Minglong
    Zhou, Junjie
    Ding, Yingchun
    OPTICS COMMUNICATIONS, 2023, 547
  • [37] Depth-enhanced 2-D optical coherence tomography using complex wavefront shaping
    Yu, Hyeonseung
    Jang, Jaeduck
    Lim, Jaeguyn
    Park, Jung-Hoon
    Jang, Wooyoung
    Kim, Ji-Yeun
    Park, YongKeun
    OPTICS EXPRESS, 2014, 22 (07): : 7514 - 7523
  • [38] Wavefront shaping with disorder-engineered metasurfaces
    Mooseok Jang
    Yu Horie
    Atsushi Shibukawa
    Joshua Brake
    Yan Liu
    Seyedeh Mahsa Kamali
    Amir Arbabi
    Haowen Ruan
    Andrei Faraon
    Changhuei Yang
    Nature Photonics, 2018, 12 : 84 - 90
  • [39] Optical wavefront shaping based on functional metasurfaces
    Wei, Qunshuo
    Huang, Lingling
    Zentgraf, Thomas
    Wang, Yongtian
    NANOPHOTONICS, 2020, 9 (05) : 987 - 1002
  • [40] Model-based wavefront shaping microscopy
    Thendiyammal, Abhilash
    Osnabrugge, Gerwin
    Knop, Tom
    Vellekoop, Ivo M.
    OPTICS LETTERS, 2020, 45 (18) : 5101 - 5104