Abstract

Here we depart from the inhomogeneous solution of a lidar equation using the backward inversion algorithm that is nowadays generally referred to as the Klett method. In particular, we develop an error sensitivity study that relates errors in the user-input parameters boundary extinction and exponential term in the extinction-to-backscatter relationship to errors in the inverted extinction profile. The validity of the analysis presented is limited only by the validity of application of the inversion algorithm itself, its numerical performance having been tested for optical depths in the 0.01–10 range. Toward this end, we focus on an introductory background about how uncertainties in these two parameters can apply to a family of inverted extinction profiles rather than a single profile and on its range-dependent behavior as a function of the optical thickness of the lidar inversion range. Next, we performed a mathematical study to derive the error span of the inverted extinction profile that is due to uncertainties in the above-mentioned user calibration parameters. This takes the form of upper and lower range-dependent error bounds. Finally, appropriate inversion plots are presented as application examples of this study to a parameterized set of atmospheric scenes inverted from both synthesized elastic-backscatter lidar signals and a live signal.

© 1999 Optical Society of America

Lidar inversion of atmospheric backscatter and extinction-to-backscatter ratios by use of a Kalman filter

Francesc Rocadenbosch, Cecilia Soriano, Adolfo Comerón, and José-María Baldasano
Appl. Opt. 38(15) 3175-3189 (1999)

Practical analytical backscatter error bars for elastic one-component lidar inversion algorithm

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Effects of noise on lidar data inversion with the backward algorithm

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Two-wavelength lidar inversion algorithm

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