Atmospheric measurement techniques · 2019 · 27 citations · 13 references
Natural SciencesEarth SciencesAtmospheric ChemistryAtmospheric ScienceRemote SensingAerosol Remote SensingAir Pollution InstrumentationAtmospheric OpticsAtmospheric Sounding From SatellitesLidar Remote SensingIn-situ MeasurementsLidar InstrumentationLidar SensingOzoneOzone MeasurementOzone Profile RetrievalReceiver DesignRemote Sensing Of Ozone
Abstract. During the 2017 Ozone Water Land Environmental Transition Study (OWLETS), the Langley mobile ozone lidar system utilized a new small diameter receiver to improve the retrieval of near-surface signals from 0.1 to 1 km in altitude. This new receiver utilizes a single 90 ∘ fiber-coupled, off-axis parabolic mirror resulting in a compact form that is easy to align. The single reflective surface offers the opportunity to easily expand its use to multiple wavelengths for additional measurement channels such as visible wavelength aerosol measurements. Detailed results compare the performance of the receiver to both ozonesonde and in situ measurements from a UAV platform, validating the performance of the near-surface ozone retrievals. Absolute O3 differences averaged 7 % between lidar and ozonesonde data from 0.1 to 1.0 km and yielded a 2.3 % high bias in the lidar data, well within the uncertainty of the sonde measurements. Conversely, lidar O3 measurements from 0.1 to 0.2 km averaged 10.5 % lower than coincident UAV O3. A more detailed study under more stable atmospheric conditions would be necessary to resolve the residual instrument differences reported in this work. Nevertheless, this unique added capability is a significant improvement allowing for near-surface observation of ozone.
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Laser Remote Sensing: Fundamentals and Applications
Thierry Leblanc, R. J. Sica, J. A. E. van Gijsel et al. · Atmospheric measurement techniques · 2016 · 118 citations · Full text
John T. Sullivan, Thomas J. McGee, Grant Sumnicht et al. · Atmospheric measurement techniques · 2014 · 91 citations · Full text