Researching | Review of Atmospheric Methane Detection and Inversion Techniques Based on Space Remote Sensing Satellites

[1] FLETCHER S E M, SCHAEFER H. Rising Methane: a New Climate Challenge[J]. Science, 364, 932-933(2019).

[3] CHENG C H, REDFERN S A T. Impact of Interannual and Multidecadal Trends on Methane-Climate Feedbacks and Sensitivity[J]. Nature Communications, 13, 3592(2022).

[4] [4] LAN X, THONING K W, DLUGOKENCKY E J. Trends in GloballyAveraged CH4, N2O, SF6[EBOL]. 2022[20230610]. https:doi.g10.15138P8XGAA10. DOI: 10.15138P8XGAA10.

[5] [5] TOLLEFSON J. Scientists Raise Alarm Over ''Dangerously Fast'' Growth in Atmospheric Methane[JOL]. Nature(20220208)[20230610]. https:www.nature.comarticlesd41586022003122. DOI: 10.1038d41586022003122.

[6] [6] NOAA. Increase in Atmospheric Methane Set Another Recd During 2021[EBOL]. (20220407) [20230712]. https:www.noaa.govnewsreleaseincreaseinatmosphericmethanesetanotherrecdduring2021.

[7] [7] MYHRE G, SHINDELL D, BRÉON F M, et al. Anthropogenic Natural Radiative Fcing[R]IPCC. Climate Change 2013: The Physical Science Basis. Contribution of Wking Group I to the 5th Assessment Rept of the IPCC. Cambridge: Cambridge University Press, 2013: 659740.

[8] ZHANG Y Z, JACOB D J, LU X et al. Attribution of the Accelerating Increase in Atmospheric Methane During 2010-2018 by Inverse Analysis of GOSAT Observations[J]. Atmospheric Chemistry and Physics, 21, 3643-3666(2021).

[9] KIRSCHKE S, BOUSQUET P, CIAIS P et al. Three Decades of Global Methane Sources and Sinks[J]. Nature Geoscience, 6, 813-823(2013).

[10] [10] KUYLENSTIERNA J C, MICHALOPOULOU E, MALLEY C. Global Methane Assessment: Benefits Costs of Mitigating Methane Emissions[EBOL]. [20230306]. https:www.sei.gpublicationsglobalmethaneassessment.

[11] SAUNOIS M, STAVERT A R, POULTER B et al. The Global Methane Budget 2000-2017[J]. Earth System Science Data, 12, 1561-1623(2020).

[12] ZHANG G L, XIAO X M, DONG J W et al. Fingerprint of Rice Paddies in Spatial-temporal Dynamics of Atmospheric Methane Concentration in Monsoon Asia[J]. Nature Communications, 11, 554(2020).

[15] PEI Z, HAN G, MAO H et al. Improving Quantification of Methane Point Source Emissions From Imaging Spectroscopy[J]. Remote Sensing of Environment, 295, 113652(2023).

[16] DE MAZIÈRE M, THOMPSON A M, KURYLO M J et al. The Network for the Detection of Atmospheric Composition Change (NDACC): History, Status and Perspectives[J]. Atmospheric Chemistry and Physics, 18, 4935-4964(2018).

[17] [17] CAI Z N, CHE K, LIU Y, et al. 2021. Decreased Anthropogenic CO2 Emissions During the COVID19 Pemic Estimated From FTS MAXDOAS Measurements at Urban Beijing[J]. Remote Sensing, 13(3): 517. DOI: 10.3390rs13030517.

[21] [21] GIOVANELLI G, KOSTADINOV I, PALAZZI E, et al. Differential Optical Absption Spectroscopy(DOAS)[EBOL]. [20231013]. https:johnplane.leeds.ac.ukresearchloweratmospheredoas.

[22] [22] PLATT U. Differential Optical Absption Spectroscopy (DOAS), in Air Moniting by Spectroscopic Techniques[M]MEYERS R A. Encyclopedia of Analytical Chemistry: Applications, They Instrumentation. New Yk: Wiley. 1994: 6070.

[23] FRANKENBERG C, PLATT U, WAGNER T. Iterative Maximum a Posteriori (IMAP)-DOAS for Retrieval of Strongly Absorbing Trace Gases: Model Studies for CH4 and CO₂ Retrieval From Near Infrared Spectra of SCIAMACHY Onboard ENVISAT[J]. Atmospheric Chemistry and Physics, Copernicus GmbH, 5, 9-22(2005).

[24] AYASSE A K, THORPE A K, ROBERTS D A et al. Evaluating the Effects of Surface Properties on Methane Retrievals Using a Synthetic Airborne Visible/Infrared Imaging Spectrometer Next Generation (AVIRIS-NG) Image[J]. Remote Sensing of Environment, 215, 386-397(2018).

[25] BORCHARDT J, GERILOWSKI K, KRAUTWURST S et al. Detection and Quantification of CH₄ Plumes Using the WFM-DOAS Retrieval on AVIRIS-NG Hyperspectral Data[J]. Article, 14, 1267-1291(2021).

[26] SHERWIN E D, RUTHERFORD J S, CHEN Y et al. Single-Blind Validation of Space-Based Point-Source Detection and Quantification of Onshore Methane Emissions[J]. Scientific Reports, 13, 3836(2023).

[27] HU H, HASEKAMP O, BUTZ A et al. The Operational Methane Retrieval Algorithm for TROPOMI[J]. Atmospheric Measurement, 9, 5423-5440(2016).

[28] [28] BERK A, CONFTI P, KENT R, et al. MODTRAN6: a Maj Upgrade of the MODTRAN Radiative Transfer Code[C]Proceedings Volume 9088, Algithms Technologies f Multispectral, Hyperspectral, Ultraspectral Imagery XX. Baltime, MD, United States: SPIE, 2014: 14. DOI: 10.111712.2050433.

[29] THORPE A K, DUREN R M, CONLEY S et al. Methane emissions from underground gas storage in California. Environmental Research Letters[J]. Environmental Research Letters, 15, 045005(2020).

[30] DUREN RM, THORPE AK, FOSTER KT et al. California’s Methane Super-Emitters[J]. Nature, 575, 180-184(2019).

[31] THOMPSON D R, LEIFER I, BOVENSMANN H et al. Real-Time Remote Detection and Measurement for Airborne Imaging Spectroscopy: a Case Study with Methane[J]. Articles, 8, 4383-4397(2015).

[32] [32] ERSON G P, CLOUGH S, KNEIZYS F K, et al. AFGL Atmospheric Constituent Profiles (0.120 km)[EBOL]. 1986[20231013]. DOI: 10.48550arXiv.2211.15429.

[33] [33] Kumar S, Tres C, Ulutan O, et al. Deep Remote Sensing Methods f Methane Detection in Overhead Hyperspectral Imagery[C]Proceedings of the 2020 IEEE Winter Conference on Applications of Computer Vision (WACV). Aspen, CO: IEEE, 2020: 17651774. l

[34] [34] GROSHENRY A, GIRON C, LAUVAUX T, et al. Detecting Methane Plumes Using PRISMA: Deep Learning Model Data Augmentation[EBOL]. arXiv(20221117) [20231115]. https:arxiv.gabs2211.15429. DOI: 10.48550arXiv.2211.15429.

[35] TURQUETY S, HADJI-LAZARO J, CLERBAUX C et al. Operational Trace Gas Retrieval Algorithm for the Infrared Atmospheric Sounding Interferometer[J]. Journal of Geophysical Research: Atmospheres, 109, D21301(2004).