Comparison of Large Eddy Simulations of a convective boundary layer with wind LIDAR measurements
Publication: Research - peer-review › Conference article – Annual report year: 2012
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Comparison of Large Eddy Simulations of a convective boundary layer with wind LIDAR measurements. / Pedersen, Jesper Grønnegaard; Kelly, Mark C.; Gryning, Sven-Erik; Floors, Rogier; Batchvarova, Ekaterina; Pena Diaz, Alfredo.
In: Advances in Science and Research, Vol. 8, 2012, p. 83-86.Publication: Research - peer-review › Conference article – Annual report year: 2012
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TY - CONF
T1 - Comparison of Large Eddy Simulations of a convective boundary layer with wind LIDAR measurements
A1 - Pedersen,Jesper Grønnegaard
A1 - Kelly,Mark C.
A1 - Gryning,Sven-Erik
A1 - Floors,Rogier
A1 - Batchvarova,Ekaterina
A1 - Pena Diaz,Alfredo
AU - Pedersen,Jesper Grønnegaard
AU - Kelly,Mark C.
AU - Gryning,Sven-Erik
AU - Floors,Rogier
AU - Batchvarova,Ekaterina
AU - Pena Diaz,Alfredo
PB - Copernicus GmbH
PY - 2012
Y1 - 2012
N2 - Vertical profiles of the horizontal wind speed and of the standard deviation of vertical wind speed from Large Eddy Simulations of a convective atmospheric boundary layer are compared to wind LIDAR measurements up to 1400 m. Fair agreement regarding both types of profiles is observed only when the simulated flow is driven by a both time- and height-dependent geostrophic wind and a time-dependent surface heat flux. This underlines the importance of mesoscale effects when the flow above the atmospheric surface layer is simulated with a computational fluid dynamics model.
AB - Vertical profiles of the horizontal wind speed and of the standard deviation of vertical wind speed from Large Eddy Simulations of a convective atmospheric boundary layer are compared to wind LIDAR measurements up to 1400 m. Fair agreement regarding both types of profiles is observed only when the simulated flow is driven by a both time- and height-dependent geostrophic wind and a time-dependent surface heat flux. This underlines the importance of mesoscale effects when the flow above the atmospheric surface layer is simulated with a computational fluid dynamics model.
U2 - 10.5194/asr-8-83-2012
DO - 10.5194/asr-8-83-2012
JO - Advances in Science and Research
JF - Advances in Science and Research
SN - 1992-0628
VL - 8
SP - 83
EP - 86
ER -