In this paper we analyze the accuracy and efficiency of several radiative transfer models for inferring cloud parameters from radiances measured by the Earth Polychromatic Imaging Camera (EPIC) on board the Deep Space Climate Observatory (DSCOVR). The radiative transfer models are the exact discrete ordinate and matrix operator methods with matrix exponential, and the approximate asymptotic and equivalent Lambertian cloud models. To deal with the computationally expensive radiative transfer calculations, several acceleration techniques such as, for example, the telescoping technique, the method of false discrete ordinate, the correlated k-distribution method and the principal component analysis (PCA) are used. We found that, for the EPIC ox...
In this work, we extend the principal component analysis (PCA)-based approach to accelerate radiativ...
This paper presents an investigation of the expected uncertainties of a single channel cloud optical...
The NASA's Earth Polychromatic Imaging Camera (EPIC) onboard NOAA's Deep Space Climate Observatory (...
In this paper we analyze the accuracy and efficiency of several radiative transfer models for inferr...
In this paper, we describe several linearized radiative transfer models which can be used for the re...
In this paper, we describe several linearized radiative transfer models which can be used for the re...
This dissertation provides a framework for retrieving cloud macrophysical properties from radiance m...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
In this work, we extend the principal component analysis (PCA)-based approach to accelerate radiativ...
In this work, we extend the principal component analysis (PCA)-based approach to accelerate radiativ...
EPIC is a multi-spectral imager onboard planned Deep Space Climate ObserVatoRy (DSCOVR) designed for...
The Deep Space Climate Observatory (DSCOVR) enables analysis of the daytime Earth radiation budget v...
In this work, we extend the principal component analysis (PCA)-based approach to accelerate radiativ...
This paper presents an investigation of the expected uncertainties of a single channel cloud optical...
The NASA's Earth Polychromatic Imaging Camera (EPIC) onboard NOAA's Deep Space Climate Observatory (...
In this paper we analyze the accuracy and efficiency of several radiative transfer models for inferr...
In this paper, we describe several linearized radiative transfer models which can be used for the re...
In this paper, we describe several linearized radiative transfer models which can be used for the re...
This dissertation provides a framework for retrieving cloud macrophysical properties from radiance m...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
International audienceIn a companion paper [Davis et al., JQSRT 216, 6-16 (2018)], we used a numeric...
In this work, we extend the principal component analysis (PCA)-based approach to accelerate radiativ...
In this work, we extend the principal component analysis (PCA)-based approach to accelerate radiativ...
EPIC is a multi-spectral imager onboard planned Deep Space Climate ObserVatoRy (DSCOVR) designed for...
The Deep Space Climate Observatory (DSCOVR) enables analysis of the daytime Earth radiation budget v...
In this work, we extend the principal component analysis (PCA)-based approach to accelerate radiativ...
This paper presents an investigation of the expected uncertainties of a single channel cloud optical...
The NASA's Earth Polychromatic Imaging Camera (EPIC) onboard NOAA's Deep Space Climate Observatory (...