• Laser & Optoelectronics Progress
  • Vol. 59, Issue 13, 1300006 (2022)
Jinyi Li1、*, Lianhui Li1, Shuo Zhao2, Peng Ren2, Shanjun Tian2, and Hongli Jin2
Author Affiliations
  • 1Tianjin Key Laboratory of Intelligent Control of Electrical Equipment, School of Control Science and Engineering, Tiangong University, Tianjin 300387, China
  • 2Eastern Crude Oil Storage and Transportation Co., Ltd., National Petroleum and Natural Gas Pipe Network Group, Xuzhou 221008, Jiangsu , China
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    DOI: 10.3788/LOP202259.1300006 Cite this Article Set citation alerts
    Jinyi Li, Lianhui Li, Shuo Zhao, Peng Ren, Shanjun Tian, Hongli Jin. Application Research of Tunable Diode Laser Absorption Spectroscopy in Petroleum Industry[J]. Laser & Optoelectronics Progress, 2022, 59(13): 1300006 Copy Citation Text show less
    Structure diagram of the gas cell sampling system
    Fig. 1. Structure diagram of the gas cell sampling system
    Cooperative target telemetry system based on WMS
    Fig. 2. Cooperative target telemetry system based on WMS
    Layout of a fenced TDLAS system
    Fig. 3. Layout of a fenced TDLAS system
    Handheld TDLAS system with non-cooperative targets for remote sensing
    Fig. 4. Handheld TDLAS system with non-cooperative targets for remote sensing
    Intelligent robot equipped with RMLD[44]
    Fig. 5. Intelligent robot equipped with RMLD[44]
    Realization of the leak localization[44]
    Fig. 6. Realization of the leak localization[44]
    UAV carrying a small methane laser sensor[45]
    Fig. 7. UAV carrying a small methane laser sensor[45]
    Structure of the ICL non-cooperative target telemetry experiment system[46]
    Fig. 8. Structure of the ICL non-cooperative target telemetry experiment system[46]
    Leak plume image[46]
    Fig. 9. Leak plume image[46]
    A set of methane and ethane detector system deployed on the vehicle[62]
    Fig. 10. A set of methane and ethane detector system deployed on the vehicle[62]
    Field test results of dual-gas (methane / ethane) sensor system. (a) Methane; (b) ethane[62]
    Fig. 11. Field test results of dual-gas (methane / ethane) sensor system. (a) Methane; (b) ethane[62]
    A new type of compact dense mode multi-channel gas cell[92]
    Fig. 12. A new type of compact dense mode multi-channel gas cell[92]
    A portable hydrogen sulfide detection sensor[93]
    Fig. 13. A portable hydrogen sulfide detection sensor[93]
    A mid-infrared hydrogen sulfide gas detection system[97]
    Fig. 14. A mid-infrared hydrogen sulfide gas detection system[97]
    TDLAS system for oxygendetection in the remaining empty layer at the top of oil tank[114]
    Fig. 15. TDLAS system for oxygendetection in the remaining empty layer at the top of oil tank[114]
    Structure of the detector gun in the TDLAS system[114]
    Fig. 16. Structure of the detector gun in the TDLAS system[114]
    A handheld remote methane leak detector[125]
    Fig. 17. A handheld remote methane leak detector[125]
    RMLD deployed on UAV[126]
    Fig. 18. RMLD deployed on UAV[126]
    Device combining the robot platform “Gasbot” with RMLD[129-130]
    Fig. 19. Device combining the robot platform “Gasbot” with RMLD[129-130]
    ManufacturerModelDetection limitFeatureReference
    HESAIHS40005×10-6 mhandheld standoff detect47
    HANWEIHRLD1005×10-6 mhandheld standoff detect48
    Anfu ElectronicsFLT1005×10-6 mIP68 level protection49
    AURORAARD10005×10-6 mlow power consumption50
    GAINWAYGW3020B0.001%high stability51
    CHUANGZHIZCB10010-6pump suction52
    ERANNTEXMS60010-8pump suction53
    DOG TechnologiesRLGD1005×10-6 mportable54
    CORWCONLmn5×10-6 mportable55
    MSAS-1012-1500×10-6 mcooperative target telemetry56
    Table 1. Performance index of methane detector
    Target gasDetection band /μmDetection schemeDetection componentDetection limitDetection accuracyOptical path /mReference
    CH41.653non-cooperative target telemetrysingle50×10-6 m-20.042
    1.651open optical pathsingle2.0×10-6 Hz-1/2-0.143
    1.653gas cell10×10-6-2.044
    1.650non-cooperative target telemetry5×10-6 m50%15.045
    C2H61.653gas cell---57
    --38.458
    3.360740×10-12-57.659
    3.340299×10-12-54.660
    1.653-4.8%-61
    3.337non-cooperative target telemetry2.4×10-12--62
    C3H81.684gas cellmultiple---63
    1.686single---64
    3.3703×10-6 m-0.265
    multiple---69
    single0.6×10-6--66
    C4H101.686multiple---71
    3.370single0.5×10-6--65
    C2H41.621open optical pathmultiple40×10-6 m20×10-6100.072
    3.267single53×10-9-3.379
    3.35696×10-9-29.978
    1.625---76
    1.626multiple-5%5.074
    single6.6×10-61.135%-81
    -1×10-69.075
    C₂H₂1.530open optical pathmultiple--76.080
    1.5904.9×10-6-10.081
    1.520---83
    1.53050×10-6 m40×10-6100.077
    1.520gas cellsingle0.3×10-6-80.084
    single540×10-9-0.385
    3.026multiple1×10-60.3%20.086
    H2S1.578gas cell224×10-9-56.790
    1.590--30.095
    1.569--20.096
    1.5781.2×10-6-30.098
    1.58015×10-6 m-12089
    1.578single0.14×10-6-15.093
    1.575multiple42×10-6 m-5.088
    1.578single60×10-9-29.392
    8.00079 μg/m3-1.091
    150×10-9-100.097
    CO1.578multiple14×10-6--104
    1.566single0.25×10-6-56.7101
    4.560gas cellmultiple1.98×10-90.22×10-1236.0106
    4.800single-0.5 μmol/mol76.0107
    2.33040×10-6 m--108
    1.18×10-6-14.5109
    multiple0.58×10-6-14.5110
    single0.2×10-6-20.0111
    O20.760non-cooperative target telemetry2050×10-6 m--114
    H2O1-3non-cooperative target telemetry0.2×10-6-121
    2.7gas cellmultiple0.31 mmol/mol40 nmol/mol4.0122
    Table 2. Summary of TDLAS applications in petroleum industry
    Jinyi Li, Lianhui Li, Shuo Zhao, Peng Ren, Shanjun Tian, Hongli Jin. Application Research of Tunable Diode Laser Absorption Spectroscopy in Petroleum Industry[J]. Laser & Optoelectronics Progress, 2022, 59(13): 1300006
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