• Laser & Optoelectronics Progress
  • Vol. 58, Issue 10, 1011021 (2021)
Wei Huang1, Shuming Jiao2、*, and Changyan Xiao1、**
Author Affiliations
  • 1College of Electrical and Information Engineering, Hunan University, Changsha, Hunan 410082, China
  • 2Peng Cheng Laboratory, Shenzhen, Guangdong 518055, China
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    DOI: 10.3788/LOP202158.1011021 Cite this Article Set citation alerts
    Wei Huang, Shuming Jiao, Changyan Xiao. Image Processing Algorithms Related to Single-Pixel Imaging: A Review[J]. Laser & Optoelectronics Progress, 2021, 58(10): 1011021 Copy Citation Text show less
    Single-pixel imaging experimental devices[16]. (a) Passive single-pixel imaging; (b) active single-pixel imaging
    Fig. 1. Single-pixel imaging experimental devices[16]. (a) Passive single-pixel imaging; (b) active single-pixel imaging
    Image processing algorithms related to single-pixel imaging
    Fig. 2. Image processing algorithms related to single-pixel imaging
    Single-pixel imaging and neural network structure
    Fig. 3. Single-pixel imaging and neural network structure
    Sensing matrix + CNN structure[59]
    Fig. 4. Sensing matrix + CNN structure[59]
    Sensing matrix+nonlinear operator+CNN structure[61]
    Fig. 5. Sensing matrix+nonlinear operator+CNN structure[61]
    Motion compensation of illumination patterns[63]. (a)(c) Object motion state; (b)(d) transform of illumination patterns
    Fig. 6. Motion compensation of illumination patterns[63]. (a)(c) Object motion state; (b)(d) transform of illumination patterns
    Simulation and reconstruction results of single pixel imaging of dynamic objects[63]. (a) Numbers on the disc; (b) reconstructed results using conventional methods when the disc is rotated at 4 rounds per second; (c) reconstructed results using illumination pattern motion compensation method when the disc is rotated at 4 rounds per second; (d) reconstructed results using conventional methods when the disc is rotated at 8 rounds per second; (e) reconstructed results using illumination pattern motion compensation method when the disc is rotated at 8 rounds per second
    Fig. 7. Simulation and reconstruction results of single pixel imaging of dynamic objects[63]. (a) Numbers on the disc; (b) reconstructed results using conventional methods when the disc is rotated at 4 rounds per second; (c) reconstructed results using illumination pattern motion compensation method when the disc is rotated at 4 rounds per second; (d) reconstructed results using conventional methods when the disc is rotated at 8 rounds per second; (e) reconstructed results using illumination pattern motion compensation method when the disc is rotated at 8 rounds per second
    EENet architecture[73]
    Fig. 8. EENet architecture[73]
    DAttNet architecture[74]
    Fig. 9. DAttNet architecture[74]
    Scheme of optical encryption device based on single-pixel imaging[77]
    Fig. 10. Scheme of optical encryption device based on single-pixel imaging[77]
    Labyrinths optical encryption system based on single-pixel imaging[82]
    Fig. 11. Labyrinths optical encryption system based on single-pixel imaging[82]
    Single-pixel encryption system based on 3D sparse space[86]
    Fig. 12. Single-pixel encryption system based on 3D sparse space[86]
    Security enhancement scheme based on reversible matrix modulation[87]
    Fig. 13. Security enhancement scheme based on reversible matrix modulation[87]
    Optical data container and XOR encoding[89]. (a) Plaintext coding result; (b) key bit stream; (c) XOR encoding result
    Fig. 14. Optical data container and XOR encoding[89]. (a) Plaintext coding result; (b) key bit stream; (c) XOR encoding result
    Watermark image encryption[92]
    Fig. 15. Watermark image encryption[92]
    Single-pixel visual cryptography system[95]
    Fig. 16. Single-pixel visual cryptography system[95]
    Edge detection results in the frequency domain based on single-pixel imaging[104]. (a)(c)(e)(g) Original images; (b)(d)(g)(h) edge detection results
    Fig. 17. Edge detection results in the frequency domain based on single-pixel imaging[104]. (a)(c)(e)(g) Original images; (b)(d)(g)(h) edge detection results
    Masks with low spatial frequency[105]. (a) Conventional random mask; (b) masks with low spatial frequency
    Fig. 18. Masks with low spatial frequency[105]. (a) Conventional random mask; (b) masks with low spatial frequency
    Illumination pattern adaptive. (a) Using K-SVD algorithm[109]; (b) using PCA algorithm[110]
    Fig. 19. Illumination pattern adaptive. (a) Using K-SVD algorithm[109]; (b) using PCA algorithm[110]
    Single-pixel imaging network frame based on deep neural networks[117]
    Fig. 20. Single-pixel imaging network frame based on deep neural networks[117]
    Deep convolutional adaptive network structure[122]
    Fig. 21. Deep convolutional adaptive network structure[122]
    Wei Huang, Shuming Jiao, Changyan Xiao. Image Processing Algorithms Related to Single-Pixel Imaging: A Review[J]. Laser & Optoelectronics Progress, 2021, 58(10): 1011021
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