• Laser & Optoelectronics Progress
  • Vol. 58, Issue 13, 1306020 (2021)
Rui Min*, Runjie He, and Xiaoli Li
Author Affiliations
  • Center for Cognition and Neuroergonomics, State Key Laboratory of Cognitive Neuroscience and Learning, Beijing Normal University at Zhuhai, Zhuhai , Guangdong 519085, China
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    DOI: 10.3788/LOP202158.1306020 Cite this Article Set citation alerts
    Rui Min, Runjie He, Xiaoli Li. Fabrication and Application of Polymer Optical Fiber Gratings: A Review[J]. Laser & Optoelectronics Progress, 2021, 58(13): 1306020 Copy Citation Text show less
    Transmission loss of PMMA polymer optical fiber[53]
    Fig. 1. Transmission loss of PMMA polymer optical fiber[53]
    Transmission loss of PC polymer optical fiber[62]
    Fig. 2. Transmission loss of PC polymer optical fiber[62]
    Transmission loss of Zeonex polymer fiber and TOPAS polymer fiber[67]
    Fig. 3. Transmission loss of Zeonex polymer fiber and TOPAS polymer fiber[67]
    Transmission loss of CYTOP polymer optical fiber[36]
    Fig. 4. Transmission loss of CYTOP polymer optical fiber[36]
    SPR transmission spectra of polymer fiber tilted Bragg grating. (a) Small angle tilted[100]; (b) tilt angle of 6°[101]
    Fig. 5. SPR transmission spectra of polymer fiber tilted Bragg grating. (a) Small angle tilted[100]; (b) tilt angle of 6°[101]
    Reflected spectral power of a chirped POFBG fabricated by different techniques. (a) Chirped phase mask[103]; (b) femtosecond directly writing[104]; (c) under 1.6% strain with tapering method[105]; (d) thermal annealing[106]
    Fig. 6. Reflected spectral power of a chirped POFBG fabricated by different techniques. (a) Chirped phase mask[103]; (b) femtosecond directly writing[104]; (c) under 1.6% strain with tapering method[105]; (d) thermal annealing[106]
    PS-FBG fabrication by 248 nm irradiation. (a) Moiré overlapping[107]; (b) narrow blocking in the center[108]
    Fig. 7. PS-FBG fabrication by 248 nm irradiation. (a) Moiré overlapping[107]; (b) narrow blocking in the center[108]
    Respiratory heart rate monitoring based on Zeonex polymer fiber Bragg grating[92]
    Fig. 8. Respiratory heart rate monitoring based on Zeonex polymer fiber Bragg grating[92]
    Medical monitoring system based on CYTOP polymer fiber Bragg grating array[110]. (a) (b) Position of armrest and fiber; (c) reflection spectrum of grating array
    Fig. 9. Medical monitoring system based on CYTOP polymer fiber Bragg grating array[110]. (a) (b) Position of armrest and fiber; (c) reflection spectrum of grating array
    Chirped POFBG for quasi distributed temperature measurement[111]. (a) System diagram; (b) chirped POFBG to measure Gaussian temperature gradient
    Fig. 10. Chirped POFBG for quasi distributed temperature measurement[111]. (a) System diagram; (b) chirped POFBG to measure Gaussian temperature gradient
    Schematic diagram of the graphene based POFBG probe[20]
    Fig. 11. Schematic diagram of the graphene based POFBG probe[20]
    Schematic diagram of small all-polymer fiber Bragg grating pH sensor[115]
    Fig. 12. Schematic diagram of small all-polymer fiber Bragg grating pH sensor[115]
    Tunable chirped POFBG[116]. (a) Relationship between the reflected spectral power and the strain; (b) relationship between the group delay and the strain
    Fig. 13. Tunable chirped POFBG[116]. (a) Relationship between the reflected spectral power and the strain; (b) relationship between the group delay and the strain
    Novel all optical modulator of polymer nano Bragg grating based on femtosecond laser two-photon polymerization printing. (a) Static optical pumping test system; (b) change of transmission spectrum; (c) relationship between Bragg resonance wavelength and pump power[96]
    Fig. 14. Novel all optical modulator of polymer nano Bragg grating based on femtosecond laser two-photon polymerization printing. (a) Static optical pumping test system; (b) change of transmission spectrum; (c) relationship between Bragg resonance wavelength and pump power[96]
    Type of POFsInscription time /sFWHM /nmReflection band /dBOpticmal energy /mJ
    PMMA mPOF250.4326.0
    TOPAS 8007 mPOF250.6315.5
    TOPAS 5013 mPOF200.6236.0
    TOPAS step-index POF110.8315.0
    TOPAS 480R mPOF150.7283.5
    PC mPOF140.6233.0
    Table 1. POFBG inscription with pulsed 248 nm KrF laser system
    Rui Min, Runjie He, Xiaoli Li. Fabrication and Application of Polymer Optical Fiber Gratings: A Review[J]. Laser & Optoelectronics Progress, 2021, 58(13): 1306020
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