The Pulsed Coherent Doppler Lidar: Observations of Frontal Structure and the Planetary Boundary Layer

Paul J. Neiman Cooperative Institute for Research in Environmental Sciences, University of Colorado/NOAA, Boulder, Colorado

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M. A. Shapiro NOAA/ERL/Wave Propagation Laboratory, Boulder, Colorado

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R. Michael Hardesty NOAA/ERL/Wave Propagation Laboratory, Boulder, Colorado

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B. Boba Stankov NOAA/ERL/Wave Propagation Laboratory, Boulder, Colorado

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Rhidian T. Lawrence NOAA/ERL/Wave Propagation Laboratory, Boulder, Colorado

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Robert J. Zamora NOAA/ERL/Wave Propagation Laboratory, Boulder, Colorado

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Tamara Hampel NOAA/ERL/Wave Propagation Laboratory, Boulder, Colorado

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Abstract

The NOAA/WPL pulsed coherent Doppler lidar was used during the Texas Frontal Experiment in 1985 to study mesoscale preconvective atmospheric conditions. On 22 April 1985, the Doppler lidar, in conjunction with serial rawinsonde ascents and National Weather Service rawinsonde ascents, observed atmospheric features such as middle-tropospheric frontal and vertical wind shear layers and the planetary boundary layer. The lidar showed unique evidence of the downward transport of strong winds from an elevated vertical speed shear (frontal) layer into the planetary boundary layer. The lidar provided further evidence of atmospheric processes such as clear-air turbulence within frontal layers, and dry convection turbulence within the superadiabatic planetary boundary layer. As a result, high-technology remote sensing instruments such as the Doppler lidar show considerable promise for future studies of small-scale weather systems in a nonprecipitating atmosphere.

Abstract

The NOAA/WPL pulsed coherent Doppler lidar was used during the Texas Frontal Experiment in 1985 to study mesoscale preconvective atmospheric conditions. On 22 April 1985, the Doppler lidar, in conjunction with serial rawinsonde ascents and National Weather Service rawinsonde ascents, observed atmospheric features such as middle-tropospheric frontal and vertical wind shear layers and the planetary boundary layer. The lidar showed unique evidence of the downward transport of strong winds from an elevated vertical speed shear (frontal) layer into the planetary boundary layer. The lidar provided further evidence of atmospheric processes such as clear-air turbulence within frontal layers, and dry convection turbulence within the superadiabatic planetary boundary layer. As a result, high-technology remote sensing instruments such as the Doppler lidar show considerable promise for future studies of small-scale weather systems in a nonprecipitating atmosphere.

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