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Rapid seismic analysis methodology for in-service wind turbine towers 被引量:20

Rapid seismic analysis methodology for in-service wind turbine towers
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摘要 The wind energy industry has been growing rapidly during the past decades.Along with this growth,engineering problems have gradually emerged in the wind power industry,including those related to the structural reliability of turbine towers.This study proposes a rapid seismic analysis methodology for existing wind turbine tower structures.The method is demonstrated and validated using a case study on a 1.5 MW tubular steel wind turbine tower.Three finite element(FE)models are developed first.Field tests are conducted to obtain the turbine tower’s vibrational characteristics.The tests include(1) remotely measuring the tower vibration frequencies using a long range laser Doppler Vibrometer and(2) monitoring the tower structural vibration by mounting accelerometers along the height of the tubular structure.In-situ measurements are used to validate and update the FE models of the wind turbine tower.With the updated FE model that represents the practical structural conditions,seismic analyses are performed to study the structural failure,which is defined by the steel yielding of the tubular tower.This research is anticipated to benefit the management of the increasing number of wind energy converters by providing an understanding of the seismic assessment of existing tubular steel wind turbine towers. The wind energy industry has been growing rapidly during the past decades.Along with this growth,engineering problems have gradually emerged in the wind power industry,including those related to the structural reliability of turbine towers.This study proposes a rapid seismic analysis methodology for existing wind turbine tower structures.The method is demonstrated and validated using a case study on a 1.5 MW tubular steel wind turbine tower.Three finite element(FE)models are developed first.Field tests are conducted to obtain the turbine tower’s vibrational characteristics.The tests include(1) remotely measuring the tower vibration frequencies using a long range laser Doppler Vibrometer and(2) monitoring the tower structural vibration by mounting accelerometers along the height of the tubular structure.In-situ measurements are used to validate and update the FE models of the wind turbine tower.With the updated FE model that represents the practical structural conditions,seismic analyses are performed to study the structural failure,which is defined by the steel yielding of the tubular tower.This research is anticipated to benefit the management of the increasing number of wind energy converters by providing an understanding of the seismic assessment of existing tubular steel wind turbine towers.
出处 《Earthquake Engineering and Engineering Vibration》 SCIE EI CSCD 2015年第3期539-548,共10页 地震工程与工程振动(英文刊)
基金 National Natural Science Foundation of China under Grant No.51208382 Shanghai Science Foundation under Grant No.12ZR1433500 Shanghai Pujiang Scholar Program under Grant No.13PJ1407900 Specialized Research Fund for the Doctoral Program of Higher Education under Grant No.20120072120001 State Key Laboratory of Power Transmission Equipment&System Security and New Technology under Grant No.2007DA10512711414 State Key Laboratory of Disaster Reduction in Civil Engineering under Grant No.SLDRCE14-B-02 Tongji University Testing Facility Funding under Grant No.2012096
关键词 wind turbine tower fi eld testing laser sensing SE wind turbine tower fi eld testing laser sensing se
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参考文献20

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