Surface wind energy trends near Taiwan in winter since 1871

The tropical surface wind speed in boreal winter reaches a maximum near Taiwan. This stable wind resource may be used for future clean energy development. How this surface wind energy source has changed in past 141 years is investigated using the 20th century reanalysis dataset and CMIP5 models. Our...

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Main Authors: Lei Zhang, Tim Li, Mong-Ming Lu
Format: Article
Language:English
Published: Chinese Geoscience Union 2017-01-01
Series:Terrestrial, Atmospheric and Oceanic Sciences
Online Access: http://tao.cgu.org.tw/media/k2/attachments/v283p295.pdf
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spelling doaj-305f8e3599f7491c9484b830ed2beaef2020-11-25T00:26:12ZengChinese Geoscience UnionTerrestrial, Atmospheric and Oceanic Sciences1017-08392311-76802017-01-0128329510.3319/TAO.2016.04.29.01(A)Surface wind energy trends near Taiwan in winter since 1871Lei ZhangTim LiMong-Ming LuThe tropical surface wind speed in boreal winter reaches a maximum near Taiwan. This stable wind resource may be used for future clean energy development. How this surface wind energy source has changed in past 141 years is investigated using the 20th century reanalysis dataset and CMIP5 models. Our observational analysis shows that the surface wind speed experienced a weakening trend in the past 141 years (1871 - 2010). The average decreasing rate is around -1.4 m s-1 per century. The decrease is primarily attributed to the relative sea surface temperature (SST) cooling in the subtropical North Pacific, which forces a large-scale low-level anti-cyclonic circulation anomaly in situ and is thus responsible for the southerly trend near Taiwan. The relative SST trend pattern is attributed mainly to the greenhouse gas effect associated with anthropogenic activities. The southerly trend near Taiwan is more pronounced in the boreal winter than in summer. Such seasonal difference is attributed to the reversed seasonal mean wind, which promotes more efficient positive feedback in the boreal winter. The CMIP5 historical run analysis reveals that climate models capture less SST warming and large-scale anti-cyclonic circulation in the subtropical North Pacific, but the simulated weakening trend of the surface wind speed near Taiwan is too small. http://tao.cgu.org.tw/media/k2/attachments/v283p295.pdf
collection DOAJ
language English
format Article
sources DOAJ
author Lei Zhang
Tim Li
Mong-Ming Lu
spellingShingle Lei Zhang
Tim Li
Mong-Ming Lu
Surface wind energy trends near Taiwan in winter since 1871
Terrestrial, Atmospheric and Oceanic Sciences
author_facet Lei Zhang
Tim Li
Mong-Ming Lu
author_sort Lei Zhang
title Surface wind energy trends near Taiwan in winter since 1871
title_short Surface wind energy trends near Taiwan in winter since 1871
title_full Surface wind energy trends near Taiwan in winter since 1871
title_fullStr Surface wind energy trends near Taiwan in winter since 1871
title_full_unstemmed Surface wind energy trends near Taiwan in winter since 1871
title_sort surface wind energy trends near taiwan in winter since 1871
publisher Chinese Geoscience Union
series Terrestrial, Atmospheric and Oceanic Sciences
issn 1017-0839
2311-7680
publishDate 2017-01-01
description The tropical surface wind speed in boreal winter reaches a maximum near Taiwan. This stable wind resource may be used for future clean energy development. How this surface wind energy source has changed in past 141 years is investigated using the 20th century reanalysis dataset and CMIP5 models. Our observational analysis shows that the surface wind speed experienced a weakening trend in the past 141 years (1871 - 2010). The average decreasing rate is around -1.4 m s-1 per century. The decrease is primarily attributed to the relative sea surface temperature (SST) cooling in the subtropical North Pacific, which forces a large-scale low-level anti-cyclonic circulation anomaly in situ and is thus responsible for the southerly trend near Taiwan. The relative SST trend pattern is attributed mainly to the greenhouse gas effect associated with anthropogenic activities. The southerly trend near Taiwan is more pronounced in the boreal winter than in summer. Such seasonal difference is attributed to the reversed seasonal mean wind, which promotes more efficient positive feedback in the boreal winter. The CMIP5 historical run analysis reveals that climate models capture less SST warming and large-scale anti-cyclonic circulation in the subtropical North Pacific, but the simulated weakening trend of the surface wind speed near Taiwan is too small.
url http://tao.cgu.org.tw/media/k2/attachments/v283p295.pdf
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AT timli surfacewindenergytrendsneartaiwaninwintersince1871
AT mongminglu surfacewindenergytrendsneartaiwaninwintersince1871
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