• Acta Optica Sinica
  • Vol. 41, Issue 15, 1531001 (2021)
Xiaole Zhang1、2, Zhuo Li1、2, Yanze Gao1、2、*, Rui Shi1、2, Jian Song1、2, Qingfeng Shi1、2, Jitian Li1、2, and Sichen Zhang1、2
Author Affiliations
  • 1School of Optics and Photonics, Beijing Institute of Technology, Beijing 100081, China
  • 2Beijing Key Laboraory for Precision Optoelectronic Measurement Instrument and Technology, Beijing 100081, China
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    DOI: 10.3788/AOS202141.1531001 Cite this Article Set citation alerts
    Xiaole Zhang, Zhuo Li, Yanze Gao, Rui Shi, Jian Song, Qingfeng Shi, Jitian Li, Sichen Zhang. Light-Driven Technology Based on MEMS Infrared Conversion Films[J]. Acta Optica Sinica, 2021, 41(15): 1531001 Copy Citation Text show less
    Working principle of MEMS infrared conversion film. (a) Structure of film; (b) working process of light driving
    Fig. 1. Working principle of MEMS infrared conversion film. (a) Structure of film; (b) working process of light driving
    Modulation curve of light source
    Fig. 2. Modulation curve of light source
    Results of decomposition of gray image
    Fig. 3. Results of decomposition of gray image
    Composite results of gray images
    Fig. 4. Composite results of gray images
    Temperature response curves of film. (a) Power density curves of write visible light; (b) temperature change curves of film
    Fig. 5. Temperature response curves of film. (a) Power density curves of write visible light; (b) temperature change curves of film
    Modulation waveforms of write visible light and temperature change curves of film. (a1)(a2) Gray value is 255; (b1)(b2) gray value is 157; (c1)(c2) gray value is 1
    Fig. 6. Modulation waveforms of write visible light and temperature change curves of film. (a1)(a2) Gray value is 255; (b1)(b2) gray value is 157; (c1)(c2) gray value is 1
    Relationship between temperature change in temperature keeping region of film and gray value of write visible light
    Fig. 7. Relationship between temperature change in temperature keeping region of film and gray value of write visible light
    Block diagram of experimental equipments
    Fig. 8. Block diagram of experimental equipments
    Diagram of experimental devices for gray test of write visible light image
    Fig. 9. Diagram of experimental devices for gray test of write visible light image
    Results of gray test of write visible light image. (a) Write visible light waveforms corresponding to different gray values; (b) relationship between average power of write visible light and gray value
    Fig. 10. Results of gray test of write visible light image. (a) Write visible light waveforms corresponding to different gray values; (b) relationship between average power of write visible light and gray value
    Diagram of experimental devices for infrared gray test
    Fig. 11. Diagram of experimental devices for infrared gray test
    Results of infrared gray test. (a) Temperature changes of film corresponding to different write visible light powers; (b) relationship between temperature change of film and time when gray value of write visible light is 255
    Fig. 12. Results of infrared gray test. (a) Temperature changes of film corresponding to different write visible light powers; (b) relationship between temperature change of film and time when gray value of write visible light is 255
    Generation result of infrared image. (a) Original image written by computer; (b) infrared image generated by MEMS conversion film
    Fig. 13. Generation result of infrared image. (a) Original image written by computer; (b) infrared image generated by MEMS conversion film
    Xiaole Zhang, Zhuo Li, Yanze Gao, Rui Shi, Jian Song, Qingfeng Shi, Jitian Li, Sichen Zhang. Light-Driven Technology Based on MEMS Infrared Conversion Films[J]. Acta Optica Sinica, 2021, 41(15): 1531001
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