Remote Sensing Technology and Application, Volume. 39, Issue 4, 809(2024)
Sensitivity Analysis and Inversion Wavelength Selection for Atmospheric Methane Detection based on HIRAS
[1] YANG Qian, GUAN Li, TAO Fa et al. Changing patterns of CH4 concentration observed at five atmospheric background stations in China. Environmental Science and Technology, 41, 1-7(2018).
[2] KHALIL M A K, RASMUSSEN R A. Atmospheric methane: Trends over the last 10 000 years. Atmospheric Environment, 21, 2445-2452(1987).
[3] ZHANG Xingying, BAI Wenguang, ZHANG Peng et al. Satellite remote sensing of the temporal and spatial distribution characteristics of atmospheric methane in the middle and upper troposphere in China. Scientific Bulletin, 56, 2804-2811(2011).
[4] NISBET E G, DLUGOKENCKY E J, BOUSQUET P. Methane on the Rise—Again. Science, 343, 493-495(2014).
[5] ZHU Jiashan, WEI Ming. Study on the mechanism of methane column change affecting atmospheric structure and local heavy precipitation. Remote Sensing Technology and Application, 33, 449-457(2018).
[6] WU Haibao. Photochemical reaction of methane in the atmosphere and its environmental effects. Environmental Pollution and Prevention, 13-15(1989).
[7] LIU Shuanghui, LI Xiaoying, CAO Xifeng et al. Advances in atmospheric methane detection and global methane distribution analysis. Remote Sensing Technology and Application, 37, 436-450(2022).
[8] ZHANG Guojun, LE Qun. Spatial and temporal distribution of CH4 column concentration in China based on SCIAMACHY WFM-DOAS data, 2010, 5.
[9] LORENTE A, BORSDORFF T, BUTZ A et al. Methane retrieved from TROPOMI: Improvement of the data product and validation of the first 2 years of measurements. Atmospheric Measurement Techniques, 14, 665-684(2021).
[10] ZHU Aijun, HU Xiuqing, LIN Manyun et al. Global data acquisition method and data distribution of Fengyun-3 D meteorological satellite. Journal of Marine Meteorology, 38, 1-10(2018).
[11] SHI Hailiang, XIONG Wei, LI Zhiwei et al. Quality analysis of on-orbit observation data of atmospheric main greenhouse gas monitors. Shanghai Aerospace, 161-166(2019).
[12] XIONG X, BARNET C, MADDY E et al. Characterization and validation of methane products from the Atmospheric Infrared Sounder(AIRS). Journal of Geophysical Research, 113, G00-01(2008).
[13] CREVOISIER C, NOBILEAU D, FIORE A M et al. Tropospheric methane in the tropics–first year from IASI hyperspectral infrared observations. Atmospheric Chemistry and Physics, 9, 6337-6350(2009).
[14] BUTZ A, GUERLET S, HASEKAMP O et al. Toward accurate CO2 and CH4 observations from GOSAT: GOSAT CO2 AND CH4 VALIDATION. Geophysical Research Letters, 38(2011).
[15] CRESSOT C, CHEVALLIER F, BOUSQUET P et al. On the consistency between global and regional methane emissions inferred from SCIAMACHY,TANSO-FTS,IASI and surface measurements. Atmospheric Chemistry and Physics, 14, 577-592(2014).
[16] MA Pengfei, CHEN Liangfu, TAO Jinhua et al. Simulation study on the inversion of atmospheric temperature and humidity profiles using infrared hyperspectral data CrIS. Spectroscopy and Spectral Analysis, 34, 1894-1897(2014).
[17] LIAO Yi, GUAN Li. Precision evaluation of spectral data of FY-3E infrared hyperspectral atmospheric detector. Geophysical Progress, 38, 977-986(2023).
[18] ZHANG Pengfei, YANG Li, FU Yifei. Successful launch of Fengyun-3F Star. Science and Technology Daily.
[19] WANG Haiping, LIU Yi, CAI Zhaonan. Application of MIPAS / ENVISAT satellite remote sensing data to study the characteristics of atmospheric chemical composition changes during stratospheric explosive warming. Remote sensing technology and application, 102, 389-393,359(2008).
[20] WU Xiaoli, FAN Dongdong, WANG Ping. Fourier transform infrared spectrometer for atmospheric composition detection in space. Space Return and Remote Sensing, 2007, 15-20,28.
[21] MIAO Jing, LI Xiaoying, WANG Hongmei, al et. GF-5 AIUS water vapor profile inversion algorithm research. Journal of Remote Sensing, 25, 1201-1215(2021).
[22] YAO Z G, HONG J, CUI X D et al. A Neural network based single footprint temperature retrieval for atmospheric infrared sounder measurements and its application to study on stratospheric gravity wave. Journal of Tropical Meteorology, 28, 82-94(2022).
[23] LI X, XU J, CHENG T et al. Monitoring trace gases over the antarctic using atmospheric infrared ultraspectral sounder onboard GaoFen-5: Algorithm Description and first retrieval results of O3,H2O,and HCl. Remote Sensing, 11(2019).
[24] CAO X, LI X, LIU S et al. Assessment of spectra of the atmospheric infrared ultraspectral sounder on GF-5 and validation of water vapor retrieval. Sensors, 21(2021).
[25] ZHANG Shuiping. Channel selection for retrieving atmospheric temperature profiles from AIRS data. Meteorology, 29, 4475-4481(2009).
[26] Rodgers C D. Information content and optimization of highspectral-resolution measurements, 136-147(1996).
[27] Rabier F, Fourrié N, Chafäi D et al. Channel selection methods for infrared atmospheric sounding interferometer radiances. Quarterly Journal of the Royal Meteorological Society, 128, 1011-1027(2002).
[28] NOH Y C, SOHN B J, KIM Y et al. A new Infrared Atmospheric Sounding Interferometer channel selection and assessment of its impact on Met Office NWP forecasts. Advances in Atmospheric Sciences, 34, 1265-1281(2017).
[29] DU Huadong, HUANG Sixun, SHI Hanqing. Optimal channel selection method and experiment for high spectral resolution remote sensing data. According to Chinese Journal of Physics, 57, 7685-7692(2008).
[30] DI D, LI J, HAN W et al. Geostationary hyperspectral infrared sounder channel selection for capturing Fast-Changing atmospheric information. IEEE Transactions on Geoscience and Remote Sensing, 60, 1-10(2022).
[31] YANG Tianhang, ZHANG Chunming, ZUO Fenghua et al. Cross-calibration matching uncertainty analysis based on FY-3E satellite-based infrared observation. Infrared and Laser Engineering:, 52, 17-20(2023).
[32] GUO Y, LI X, CHENG T et al. Construction of the Global Reference Atmospheric Profile Database. Remote Sensing, 15, 3006(2023).
[33] LI Shulei, LIU Lei, GAO Taichang. Introduction of Atmos-pheric Radiative Transfer Simulator(ARTS) software. Journal of Atmospheric and Environmental Optics, 11, 241-248(2016).
[34] MA Xialin, ZHANG Fengying. Preliminary experiments on the inversion of total ozone content with satellite data. Atmospheric Science, 10, 383-391(1986).
[35] Li Luhan. Evaluation and quality control of typhoon numerical simulation based on Himawari-8 all-sky infrared radiation(2018).
[36] Edwards David P. Genln2: A general line-by-line atmospherictransmittance and radiance model, version 3.0 description and usersguide(1992).
[37] DUDHIA A. The Reference Forward Model (RFM). Journal of Quantitative Spectroscopy and Radiative Transfer, 186, 243-253(2017).
[38] CAO Xifeng, LI Xiaoying. Selection of AIUS temperature inver-sion channel for Gaofen-5. Journal of Remote Sensing, 24, 1157-1167(2020).
[39] DAI Congming, WEI Reasonable, Hu Shunxing. Characterization of the effect of different versions of HITRAN database on radiative transfer in the upper atmosphere. Journal of Optics, 33, 9-16(2013).
[40] ROTHMAN L S, JACQUEMART D, BARBE A et al. The HITRAN 2004 molecular spectroscopic database. Journal of Quantitative Spectroscopy & Radiative Transfer, 96, 139-204(2005).
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Weifang FANG, Xiaoying LI, Yapeng WANG, Tianhai CHENG, Shenshen LI, Yuhang GUO, Wenjing LU. Sensitivity Analysis and Inversion Wavelength Selection for Atmospheric Methane Detection based on HIRAS[J]. Remote Sensing Technology and Application, 2024, 39(4): 809
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Received: Sep. 9, 2023
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Published Online: Jan. 6, 2025
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