Assessing wind dynamics and turbine power at Princess Elisabeth station, Antarctica, using Doppler wind LiDAR and vertical array anemometers

This study introduces a novel methodology to assess wind turbine energy production at the Princess Elisabeth Antarctica (PEA) station. The objective is to improve bias correction of reanalysis wind data by combining in situ measurements, ERA5(-Land) reanalysis, and a new statistical approach. Traditional Quantile Mapping (QM) requires overlapping observation–reanalysis periods, limiting its scope. The proposed Parameterized Quantile Mapping (PQM) applies an exponential mapping to the CDF relationship between observed and ERA5(-Land) data, enabling consistent bias correction beyond the calibration period. This two-parameter, physically-informed method produces realistic wind speed time series in data-scarce regions. Applied to ERA5-Land, PQM improves hub-height wind and power estimates, reducing annual wind energy production error at PEA to 12%, and strengthening confidence in wind energy assessments across Antarctica. • Developed a physically-informed PQM method to extend wind speed bias correction. • Measured Antarctic wind profiles (2–300 m) using LiDAR and tower anemometers. • Improved data availability of Doppler-wind LiDAR in the dry Antarctic atmosphere.

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Publication Details

Journal
Energy Conversion and Management
Published
2026-01-15
DOI
https://doi.org/10.1016/j.enconman.2026.121074
Primary Topic
Wind Energy Research and Development
Type
article
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article

Assessing wind dynamics and turbine power at Princess Elisabeth station, Antarctica, using Doppler wind LiDAR and vertical array anemometers

Michael Lehning, Hendrik Huwald, Brandon J.A. van Schaik
Energy Conversion and Management
Wind Energy Research and Development
article

Assessing wind dynamics and turbine power at Princess Elisabeth station, Antarctica, using Doppler wind LiDAR and vertical array anemometers

Michael Lehning, Hendrik Huwald, Brandon J.A. van Schaik
article en

Abstract

This study introduces a novel methodology to assess wind turbine energy production at the Princess Elisabeth Antarctica (PEA) station. The objective is to improve bias correction of reanalysis wind data by combining in situ measurements, ERA5(-Land) reanalysis, and a new statistical approach. Traditional Quantile Mapping (QM) requires overlapping observation–reanalysis periods, limiting its scope. The proposed Parameterized Quantile Mapping (PQM) applies an exponential mapping to the CDF relationship between observed and ERA5(-Land) data, enabling consistent bias correction beyond the calibration period. This two-parameter, physically-informed method produces realistic wind speed time series in data-scarce regions. Applied to ERA5-Land, PQM improves hub-height wind and power estimates, reducing annual wind energy production error at PEA to 12%, and strengthening confidence in wind energy assessments across Antarctica. • Developed a physically-informed PQM method to extend wind speed bias correction. • Measured Antarctic wind profiles (2–300 m) using LiDAR and tower anemometers. • Improved data availability of Doppler-wind LiDAR in the dry Antarctic atmosphere.

Energy Conversion and ManagementVol. 352
Center for Snow and Avalanche Studies (US), École Polytechnique Fédérale de Lausanne (CH)
Affordable and clean energy
Openalex Percentile: Top 90%
Wind Energy Research and Development
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