• Infrared and Laser Engineering
  • Vol. 51, Issue 2, 20210888 (2022)
Zhiyu Sun, Jian Lu, Hongchao Zhang, Guangji Li, and Zhijian Xie
Author Affiliations
  • School of Science, Nanjing University of Science and Technology, Nanjing 210094, China
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    DOI: 10.3788/IRLA20210888 Cite this Article
    Zhiyu Sun, Jian Lu, Hongchao Zhang, Guangji Li, Zhijian Xie. Performance test of solar cell under laser energy transmission and signal transmission[J]. Infrared and Laser Engineering, 2022, 51(2): 20210888 Copy Citation Text show less
    Equivalent circuit model of solar cell
    Fig. 1. Equivalent circuit model of solar cell
    Equivalent circuit model of solar cell for energy transfer and communication
    Fig. 2. Equivalent circuit model of solar cell for energy transfer and communication
    Principle diagram of system experiment
    Fig. 3. Principle diagram of system experiment
    Response characteristic curves of solar cell. (a) I-V curve; (b) P-V curve
    Fig. 4. Response characteristic curves of solar cell. (a) I-V curve; (b) P-V curve
    Relationship between the output characteristics of GaAs solar cell and laser power density. (a) Short circuit current; (b) Open circuit voltage; (c) Photoelectric conversion efficiency
    Fig. 5. Relationship between the output characteristics of GaAs solar cell and laser power density. (a) Short circuit current; (b) Open circuit voltage; (c) Photoelectric conversion efficiency
    Frequency response of the system when the receiver is PD detector and GaAs solar cell
    Fig. 6. Frequency response of the system when the receiver is PD detector and GaAs solar cell
    System frequency response change curves when the receiver is GaAs solar cell. (a) Change with ; (b) Change with 接收端为GaAs太阳能电池时系统频率响应变化曲线。(a)随变化; (b)随变化
    Fig. 7. System frequency response change curves when the receiver is GaAs solar cell. (a) Change with ; (b) Change with 接收端为GaAs太阳能电池时系统频率响应变化曲线。(a)随 变化; (b)随 变化
    Output waveform before and after connecting circuit. (a) Before 2 kbps; (b) Before 10 kbps; (c) After 2 kbps; (d) After 240 kbps
    Fig. 8. Output waveform before and after connecting circuit. (a) Before 2 kbps; (b) Before 10 kbps; (c) After 2 kbps; (d) After 240 kbps
    Principle diagram of amplification circuit
    Fig. 9. Principle diagram of amplification circuit
    Waveform received when the laser wireless energy and signal are transmitted synchronously. (a) Before circuit access; (b) After circuit access
    Fig. 10. Waveform received when the laser wireless energy and signal are transmitted synchronously. (a) Before circuit access; (b) After circuit access
    Signal output waveform under different laser power densities
    Fig. 11. Signal output waveform under different laser power densities
    Zhiyu Sun, Jian Lu, Hongchao Zhang, Guangji Li, Zhijian Xie. Performance test of solar cell under laser energy transmission and signal transmission[J]. Infrared and Laser Engineering, 2022, 51(2): 20210888
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