@misc{f7a96ed04bf9411ea222b5a3462b252b,
title = "SST ..kappa..-..omega.. Simulations of the Atmospheric Boundary Layer Including the Coriolis Effect",
abstract = "For large-scale structures in the atmospheric boundary layer (ABL), the Coriolis effect and near-wall behavior can have a meaningful impact. For example, both the Coriolis effect and blade boundary layer impact how muchpower wind farms produce. RANS simulations of the ABL typically use the ..kappa..-epsilon turbulence model, which has been developed to accurately capture the Coriolis effect but typically does not perform well near walls. The SST ..kappa..-..omega.. turbulence model performs well near walls but does not accurately capture the Coriolis effect. This work modifies SST ..kappa..-..omega.. to accurately model the Coriolis effect. We discuss the similarities and differences in how to modify ..kappa..-epsilon and SST ..kappa..-..omega.. for the Coriolis effect. Finally, we compare ..kappa..-epsilon and SST ..kappa..-..omega.. simulations of the ABL, including the Coriolis effect, with large eddy simulations and measurements.",
keywords = "atmospheric boundary layer, computational fluid dynamics, reynolds average navier stokes, turbulence, wind energy",
author = "Christiane Adcock and \{Henry de Frahan\}, Marc and Jeremy Melvin and Ganesh Vijayakumar and Shreyas Ananthan and Gianluca Iaccarino and Robert Moser and Michael Sprague",
year = "2021",
language = "American English",
series = "Presented at the 74th Annual Meeting of the APS Division of Fluid Dynamics, 21-23 November 2021, Phoenix, Arizona",
type = "Other",
}