Optik · 2018 · 15 citations · 13 references
Natural SciencesEarth SciencesAtmospheric ChemistryAtmospheric ScienceRemote SensingAerosol PhysicsAerosol Remote SensingAtmospheric OpticsAtmospheric ScatteringLidar Remote SensingRaman SpectroscopyAerosol Optical PropertiesDenoisingExperimental Data CollectionLidar InversionSignalsWavelet AnalysisWavelet Denoising
An observation experiment on atmospheric aerosols based on Mie-Raman scattering lidar in northern suburb of Nanjing was introduced. To avoid the saturation effect of strong signals near the ground, the detection height of Raman scattering lidar was set high. For better inversion results, Mie-Raman scattering lidar’s aerosol observational data were processed by wavelet denoising. Appropriate threshold was selected to denoise the experimental observed data. The atmospheric aerosol extinction coefficient profiles in the upper troposphere were retrieved by Raman scattering lidar. The atmospheric aerosol extinction coefficient profiles in the lower troposphere were retrieved by Mie scattering lidar. The retrieved upper tropospheric aerosol extinction coefficient profiles provided one boundary value for Fernald method.
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Analysis of atmospheric lidar observations: some comments
F. G. Fernald · Applied Optics · 1984 · 2K citations
Impact of aerosols on convective clouds and precipitation
Wei‐Kuo Tao, Jen‐Ping Chen, Zhanqing Li et al. · Reviews of Geophysics · 2012 · 1K citations · Full text
Aerosol and monsoon climate interactions over Asia
Zhanqing Li, W. K.‐M. Lau, V. Ramanathan et al. · Reviews of Geophysics · 2016 · 907 citations · Full text