Nested high-resolution atmospheric boundary layer simulations forMut using WRF-LES
Yılmaz Erkan
Abstract
Yılmaz Erkan
Abstract
WRF model provides a potentially powerful framework for coupled simulations of flow covering a wide range of spatial and temporal scales via a successive grid nesting capability. Nesting can be repeated down to turbulence solving large eddy simulation (LES) scales, providing a means for significant improvements of simulation of turbulent atmospheric boundary layers. We will present the recent progress on our WRF-LES simulations of Mut place in a complex terrain. We performed multi-scale simulations using WRF’s different Planetary Boundary Layer (PBL) parameterizations as well as Large Eddy Simulation (LES) and compared the results with the detailed field measurements. WRF-LES model improved the mean flow field as well as second order flow statistics. Mean fluctuations and turbulent kinetic energy fields are investigated in several cross-sections around the hill.
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WRF model provides a potentially powerful framework for coupled simulations of flow covering a wide range of spatial and temporal scales via a successive grid nesting capability. Nesting can be repeated down to turbulence solving large eddy simulation (LES) scales, providing a means for significant improvements of simulation of turbulent atmospheric boundary layers. We will present the recent progress on our WRF-LES simulations of Mut place in a complex terrain. We performed multi-scale simulations using WRF’s different Planetary Boundary Layer (PBL) parameterizations as well as Large Eddy Simulation (LES) and compared the results with the detailed field measurements. WRF-LES model improved the mean flow field as well as second order flow statistics. Mean fluctuations and turbulent kinetic energy fields are investigated in several cross-sections around the hill.
Key concepts: Weather Research and Forecasting Model, Nested set model, Environmental science, Planetary boundary layer, Boundary layer, Meteorology, Atmospheric sciences, Geology