Capability of Raman lidar for monitoring the variation of atmospheric CO2 profile

被引:0
|
作者
赵培涛 [1 ]
张寅超 [2 ]
王莲 [3 ]
胡顺星 [1 ]
苏嘉 [1 ]
曹开法 [1 ]
赵曰峰 [4 ]
胡欢陵 [1 ]
机构
[1] Anhui Institute of Optics and Fine Mechanics, Chinese Academy of Sciences
[2] Department of Chemical Physics, University of Science and Technology of China
[3] Department of Optical Engineering, Laboratory of Photoelectric Imaging and Information Engineering, Beijing Institute of Technology
[4] College of Physics and Electronics, Shandong Normal University
关键词
Raman lidar; atmospheric CO 2; minimum detectable concentration;
D O I
暂无
中图分类号
TN958.98 [光学定位雷达、激光雷达];
学科分类号
080904 ; 0810 ; 081001 ; 081002 ; 081105 ; 0825 ;
摘要
Lidar (Light detection and ranging) has special capabilities for remote sensing of many different behaviours of the atmosphere. One of the techniques which show a great deal of promise for several applications is Raman scattering. The detecting capability, including maximum operation range and minimum detectable gas concentration is one of the most significant parameters for lidar remote sensing of pollutants. In this paper, based on the new method for evaluating the capabilities of a Raman lidar system, we present an evaluation of detecting capability of Raman lidar for monitoring atmospheric CO 2 in Hefei. Numerical simulations about the influence of atmospheric conditions on lidar detecting capability were carried out, and a conclusion can be drawn that the maximum difference of the operation ranges caused by the weather conditions alone can reach about 0.4 to 0.5km with a measuring precision within 30ppmv. The range of minimum detectable concentration caused by the weather conditions alone can reach about 20 to 35 ppmv in vertical direction for 20000 shots at a distance of 1 km on the assumption that other parameters are kept constant. The other corresponding parameters under different conditions are also given. The capability of Raman lidar operated in vertical direction was found to be superior to that operated in horizontal direction. During practical measurement with the Raman lidar whose hardware components were fixed, aerosol scattering extinction effect would be a significant factor that influenced the capability of Raman lidar. This work may be a valuable reference for lidar system designing, measurement accuracy improving and data processing.
引用
收藏
页码:335 / 342
页数:8
相关论文
共 50 条
  • [21] Atmospheric pressure broadening correction algorithm of differential absorption atmospheric CO2 lidar
    Ma, Xin
    Lin, Hong
    Ma, Yingying
    Gong, Wei
    Guangxue Xuebao/Acta Optica Sinica, 2012, 32 (11):
  • [22] Backscatter 2-μm Lidar Validation for Atmospheric CO2 Differential Absorption Lidar Applications
    Refaat, Tamer F.
    Ismail, Syed
    Koch, Grady J.
    Rubio, Manuel
    Mack, Terry L.
    Notari, Anthony
    Collins, James E.
    Lewis, Jasper
    De Young, Russell
    Choi, Yonghoon
    Abedin, M. Nurul
    Singh, Upendra N.
    IEEE TRANSACTIONS ON GEOSCIENCE AND REMOTE SENSING, 2011, 49 (01): : 572 - 580
  • [23] Pulsed airborne lidar measurements of atmospheric CO2 column absorption
    Abshire, James B.
    Riris, Haris
    Allan, Graham R.
    Weaver, Clark J.
    Mao, Jianping
    Sun, Xiaoli
    Hasselbrack, William E.
    Kawa, S. Randoph
    Biraud, Sebastien
    TELLUS SERIES B-CHEMICAL AND PHYSICAL METEOROLOGY, 2010, 62 (05): : 770 - 783
  • [24] Measurement of tropospheric CO2 and aerosol extinction profiles with Raman lidar
    Zhao, Peitao
    Zhang, Yinchao
    Wang, Lian
    Cao, Kaifa
    Su, Jia
    Hu, Shunxing
    Hu, Huanling
    CHINESE OPTICS LETTERS, 2008, 6 (03) : 157 - 160
  • [25] Measurement of tropospheric CO2 and aerosol extinction profiles with Raman lidar
    赵培涛
    张寅超
    王莲
    曹开法
    苏嘉
    胡顺星
    胡欢陵
    ChineseOpticsLetters, 2008, (03) : 157 - 160
  • [26] Operating wavelengths optimization for a spaceborne lidar measuring atmospheric CO2
    Caron, Jerome
    Durand, Yannig
    APPLIED OPTICS, 2009, 48 (28) : 5413 - 5422
  • [27] Monitoring and interpreting the ocean uptake of atmospheric CO2
    Watson, Andrew J.
    Metzl, Nicolas
    Schuster, Ute
    PHILOSOPHICAL TRANSACTIONS OF THE ROYAL SOCIETY A-MATHEMATICAL PHYSICAL AND ENGINEERING SCIENCES, 2011, 369 (1943): : 1997 - 2008
  • [28] Simple and effective atmospheric monitoring for CO2 leakage
    Jenkins, Charles
    Kuske, Tehani
    Zegelin, Steve
    INTERNATIONAL JOURNAL OF GREENHOUSE GAS CONTROL, 2016, 46 : 158 - 174
  • [29] Atmospheric monitoring and verification technologies for CO2 geosequestration
    Leuning, Ray
    Etheridge, David
    Luhar, Ashok
    Dunse, Bronwyn
    INTERNATIONAL JOURNAL OF GREENHOUSE GAS CONTROL, 2008, 2 (03) : 401 - 414
  • [30] FREQUENCY-DOUBLED CO2 LIDAR MEASUREMENT AND DIODE-LASER SPECTROSCOPY OF ATMOSPHERIC CO2
    BUFTON, JL
    ITABE, T
    STROW, LL
    KORB, CL
    GENTRY, BM
    WENG, CY
    APPLIED OPTICS, 1983, 22 (17): : 2592 - 2602