About

Log in?

DTU users get better search results including licensed content and discounts on order fees.

Anyone can log in and get personalized features such as favorites, tags and feeds.

Log in as DTU user Log in as non-DTU user No thanks

DTU Findit

Journal article · Conference paper

Seasonality in onshore normalized wind profiles above the surface layer

From

Risø National Laboratory for Sustainable Energy, Technical University of Denmark1

Meteorology, Wind Energy Division, Risø National Laboratory for Sustainable Energy, Technical University of Denmark2

Wind Energy Division, Risø National Laboratory for Sustainable Energy, Technical University of Denmark3

This work aims to study the seasonal difference in normalized wind speed above the surface layer as it is observed at the 160 m high mast at the coastal site Høvsøre at winds from the sea (westerly). Normalized and stability averaged wind speeds above the surface layer are observed to be 20 to 50% larger in the winter/spring seasons compared to the summer/autumn seasons at winds from west within the same atmospheric stability class.

A method combining the mesoscale model, COAMPS, and observations of the surface stability of the marine boundary layer is presented. The objective of the method is to reconstruct the seasonal signal in normalized wind speed and identify the physical process behind. The method proved reasonably successful in capturing the relative difference in wind speed between seasons, indicating that the simulated physical processes are likely candidates to the observed seasonal signal in normalized wind speed.

Language: English
Publisher: Copernicus Publications
Year: 2010
Pages: 57-62
Proceedings: 9th EMS Annual Meeting and 9th European Conference on Applications of Meteorology 2009
ISSN: 19920636 and 19920628
Types: Journal article and Conference paper
DOI: 10.5194/asr-4-57-2010
ORCIDs: Gryning, Sven-Erik

DTU users get better search results including licensed content and discounts on order fees.

Log in as DTU user

Access

Analysis