Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading

Abstract Passive damping systems have been widely studied to improve the response of wind turbine structures under operational conditions. However, there is insufficient information on how these systems enhance reliability for extreme loads. Wind farm construction has been growing rapidly in recent...

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Main Authors: J. Osvaldo Martín del Campo, Adrián Pozos‐Estrada, Oscar Pozos‐Estrada
Format: Article
Language:English
Published: Wiley 2021-07-01
Series:Wind Energy
Subjects:
Online Access:https://doi.org/10.1002/we.2600
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spelling doaj-623bfddac2114b89b7dbf34dcc11a6de2021-06-10T07:11:50ZengWileyWind Energy1095-42441099-18242021-07-0124773775310.1002/we.2600Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loadingJ. Osvaldo Martín del Campo0Adrián Pozos‐Estrada1Oscar Pozos‐Estrada2Instituto de Ingeniería Universidad Nacional Autónoma de México Mexico City MexicoInstituto de Ingeniería Universidad Nacional Autónoma de México Mexico City MexicoInstituto de Ingeniería Universidad Nacional Autónoma de México Mexico City MexicoAbstract Passive damping systems have been widely studied to improve the response of wind turbine structures under operational conditions. However, there is insufficient information on how these systems enhance reliability for extreme loads. Wind farm construction has been growing rapidly in recent decades, thereby moving wind turbine structures to sites with higher seismic and hurricane hazards. This research presents a numerical study performed on three land‐based wind turbines, similar to typical turbines installed in Mexican wind farms, under cyclone‐induced wind and earthquake action. The fictional location of the turbines is justified by the wind capacity distribution of Mexico, which is a country with high seismic and tropical cyclone risk. The wind field is simulated from semiempirical mean velocity models, and the ground motion records are obtained from real events recorded near the assumed site. All the time history analyses assume that the turbines are in parked condition. The results indicate that a fragility reduction of approximately 80% can be achieved under cyclone‐induced winds when passive damping systems are added to the structure, and that the fragility reduction is significantly less under seismic action.https://doi.org/10.1002/we.2600cyclones, earthquake engineering, fragility analysis, passive damping, tuned mass dampers, wind engineering, wind turbine
collection DOAJ
language English
format Article
sources DOAJ
author J. Osvaldo Martín del Campo
Adrián Pozos‐Estrada
Oscar Pozos‐Estrada
spellingShingle J. Osvaldo Martín del Campo
Adrián Pozos‐Estrada
Oscar Pozos‐Estrada
Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading
Wind Energy
cyclones, earthquake engineering, fragility analysis, passive damping, tuned mass dampers, wind engineering, wind turbine
author_facet J. Osvaldo Martín del Campo
Adrián Pozos‐Estrada
Oscar Pozos‐Estrada
author_sort J. Osvaldo Martín del Campo
title Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading
title_short Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading
title_full Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading
title_fullStr Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading
title_full_unstemmed Development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading
title_sort development of fragility curves of land‐based wind turbines with tuned mass dampers under cyclone and seismic loading
publisher Wiley
series Wind Energy
issn 1095-4244
1099-1824
publishDate 2021-07-01
description Abstract Passive damping systems have been widely studied to improve the response of wind turbine structures under operational conditions. However, there is insufficient information on how these systems enhance reliability for extreme loads. Wind farm construction has been growing rapidly in recent decades, thereby moving wind turbine structures to sites with higher seismic and hurricane hazards. This research presents a numerical study performed on three land‐based wind turbines, similar to typical turbines installed in Mexican wind farms, under cyclone‐induced wind and earthquake action. The fictional location of the turbines is justified by the wind capacity distribution of Mexico, which is a country with high seismic and tropical cyclone risk. The wind field is simulated from semiempirical mean velocity models, and the ground motion records are obtained from real events recorded near the assumed site. All the time history analyses assume that the turbines are in parked condition. The results indicate that a fragility reduction of approximately 80% can be achieved under cyclone‐induced winds when passive damping systems are added to the structure, and that the fragility reduction is significantly less under seismic action.
topic cyclones, earthquake engineering, fragility analysis, passive damping, tuned mass dampers, wind engineering, wind turbine
url https://doi.org/10.1002/we.2600
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