• Laser & Optoelectronics Progress
  • Vol. 60, Issue 11, 1106005 (2023)
Ning Wang*, Yong Zhu, and Jie Zhang
Author Affiliations
  • Key Laboratory of Optoelectronic Technology & System (Chongqing University), Ministry of Education, Chongqing 400044, China
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    DOI: 10.3788/LOP230722 Cite this Article Set citation alerts
    Ning Wang, Yong Zhu, Jie Zhang. Research Status of Fiber Fabry-Perot Sensing Technology Under High Temperature and High Pressure Environment[J]. Laser & Optoelectronics Progress, 2023, 60(11): 1106005 Copy Citation Text show less
    Silicon-borosilicate glass fiber F-P pressure sensor[16]
    Fig. 1. Silicon-borosilicate glass fiber F-P pressure sensor[16]
    Monocrystalline silicon MEMS optical fiber F-P hightemperature pressure sensor. (a) Schematic diagram of SiC sensor head and measurement scheme[17]; (b) structural diagram of all silicon based dual cavity optical fiber pressure sensor[18]
    Fig. 2. Monocrystalline silicon MEMS optical fiber F-P hightemperature pressure sensor. (a) Schematic diagram of SiC sensor head and measurement scheme[17]; (b) structural diagram of all silicon based dual cavity optical fiber pressure sensor[18]
    SiC optical fiber F-P high temperature pressure sensor[19-20]
    Fig. 3. SiC optical fiber F-P high temperature pressure sensor[19-20]
    Fiber end face pressure sensor. (a) Pressure sensor made of single-mode fiber[21]; (b) all quartz micro pressure sensor made of quartz fiber using laser processing technology[22]; (c) pressure sensor made of quartz fiber using femtosecond laser processing method[23]
    Fig. 4. Fiber end face pressure sensor. (a) Pressure sensor made of single-mode fiber[21]; (b) all quartz micro pressure sensor made of quartz fiber using laser processing technology[22]; (c) pressure sensor made of quartz fiber using femtosecond laser processing method[23]
    Photonic crystal fiber F-P sensor[24]
    Fig. 5. Photonic crystal fiber F-P sensor[24]
    Structure diagram of sapphire-derived fiber sensor[25]
    Fig. 6. Structure diagram of sapphire-derived fiber sensor[25]
    Sensor schematic diagram and related schematic diagram (a) Schematic of sensor; (b) schematic of large diameter fiber[26]
    Fig. 7. Sensor schematic diagram and related schematic diagram (a) Schematic of sensor; (b) schematic of large diameter fiber[26]
    Schematic diagram of air fiber matrix composite optical fiber F-P interferometer[27]
    Fig. 8. Schematic diagram of air fiber matrix composite optical fiber F-P interferometer[27]
    Micro-fiber F-P force sensor[28]
    Fig. 9. Micro-fiber F-P force sensor[28]
    Sapphire fiber vibration sensor[29]. (a) Configuration; (b) physical layout; (c) ceramic base; (d) ceramic plate; (e) ceramic assembly
    Fig. 10. Sapphire fiber vibration sensor[29]. (a) Configuration; (b) physical layout; (c) ceramic base; (d) ceramic plate; (e) ceramic assembly
    Sensor[30]. (a) Physical photo of the sensor; (b) structure of the probe cavity; (c) structure of the fiber F-P sensor
    Fig. 11. Sensor[30]. (a) Physical photo of the sensor; (b) structure of the probe cavity; (c) structure of the fiber F-P sensor
    Sapphire fiber optic sensor. (a) Sapphire fiber optic F-P temperature sensor proposed by Beijing University of Aeronautics and Astronautics[31]; (b) sapphire fiber optic F-P temperature sensor proposed by Tianjin University[32]; (c) sapphire fiber optic pressure sensor[33]
    Fig. 12. Sapphire fiber optic sensor. (a) Sapphire fiber optic F-P temperature sensor proposed by Beijing University of Aeronautics and Astronautics[31]; (b) sapphire fiber optic F-P temperature sensor proposed by Tianjin University[32]; (c) sapphire fiber optic pressure sensor[33]
    Demodulation optical path based on Fourier transform[48]
    Fig. 13. Demodulation optical path based on Fourier transform[48]
    Block diagram of the non-scanning demodulation system[49]
    Fig. 14. Block diagram of the non-scanning demodulation system[49]
    Polarization-low coherence interference demodulation technique[50-51]
    Fig. 15. Polarization-low coherence interference demodulation technique[50-51]
    F-P demodulation system based on AWG[52]
    Fig. 16. F-P demodulation system based on AWG[52]
    F-P fiber strain sensor and strain instrument[55]
    Fig. 17. F-P fiber strain sensor and strain instrument[55]
    Analysis of the influence of small range Fizeau interferometer's surface shape on measurement accuracy[58]
    Fig. 18. Analysis of the influence of small range Fizeau interferometer's surface shape on measurement accuracy[58]
    Sapphire fiber F-P sensing system produced by Oxsensis[59]
    Fig. 19. Sapphire fiber F-P sensing system produced by Oxsensis[59]
    Sapphire fiber F-P sensor and its application[60]
    Fig. 20. Sapphire fiber F-P sensor and its application[60]
    Flow-induced vibration test of the heat transfer pipe[61]
    Fig. 21. Flow-induced vibration test of the heat transfer pipe[61]
    Thermal and hydraulic experiment of fuel assembly[28]
    Fig. 22. Thermal and hydraulic experiment of fuel assembly[28]
    Ning Wang, Yong Zhu, Jie Zhang. Research Status of Fiber Fabry-Perot Sensing Technology Under High Temperature and High Pressure Environment[J]. Laser & Optoelectronics Progress, 2023, 60(11): 1106005
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