Performance of a Passive Tuned Liquid Column Damper for Floating Wind Turbines

Wei Yu, F. Lemmer, P. Cheng
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引用次数: 5

Abstract

The motivation of the present paper is to show the proof-of-concept of a passive Tuned Liquid Column Damper (TLCD) for floating wind turbines, which increases the platform pitch damping and power production under wind and wave excitations. As the first step, a reliable TLCD model is implemented and coupled with a reduced order floating wind turbine model. Here, the TLCD is modelled as a second order system which is known for ships, whereas the structural model is a coupled aero-hydro-servo-elastic model with five degrees of freedom. The results show that the TLCD is able to damp the platform resonances but to a limited extent, which is inline the findings of previous research. However, the improved platform pitch stability allows a larger blade pitch control bandwidth, which is normally limited by the underdamped soft support platform. Therefore, by introducing the passive TLCD into the floating wind turbine system, a better power production is achieved.
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浮式风力发电机被动调谐液柱阻尼器性能研究
本论文的动机是展示一种用于浮式风力涡轮机的被动调谐液柱阻尼器(TLCD)的概念验证,该阻尼器可以增加平台的俯距阻尼和在风浪激励下的发电量。作为第一步,实现了可靠的TLCD模型,并与降阶浮式风力机模型耦合。在这里,TLCD被建模为一个二阶系统,这是众所周知的船舶,而结构模型是一个耦合的五自由度气动-液压-伺服-弹性模型。结果表明,TLCD能够抑制平台共振,但在一定程度上是有限的,这与以往的研究结果一致。然而,改进的平台俯仰稳定性允许更大的桨距控制带宽,这通常受到欠阻尼软支撑平台的限制。因此,通过将被动TLCD引入浮式风力发电系统,可以实现更好的发电效果。
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