Coordinated optimal control of active power of wind farms considering wake effect

In a large-scale wind farm, under the influence of the wake effect, the single-machine maximum power extraction control strategy would not be able to function at the ideal optimal value. It is important to study the coordinated operation strategy of the wind farm under the wake effect to improve the...

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Autores principales: Yu Shen, Tannan Xiao, Qifeng Lv, Xuemin Zhang, Yangfan Zhang, Yimei Wang, Jinfang Wu
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Lenguaje:EN
Publicado: Elsevier 2022
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spelling oai:doaj.org-article:6369462353a645878e39770a626839f62021-12-04T04:35:07ZCoordinated optimal control of active power of wind farms considering wake effect2352-484710.1016/j.egyr.2021.11.132https://doaj.org/article/6369462353a645878e39770a626839f62022-04-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S2352484721012798https://doaj.org/toc/2352-4847In a large-scale wind farm, under the influence of the wake effect, the single-machine maximum power extraction control strategy would not be able to function at the ideal optimal value. It is important to study the coordinated operation strategy of the wind farm under the wake effect to improve the output power of wind farms and improve the economic benefit. In this paper, a practical wake model called the PARK model is used and a wake superposition model based on energy balance is derived. Based on these models, an optimization problem is formulated to maximize the output power of the wind farm considering the wake effect. Taking the Horns Rev offshore wind farm as an example, the stochastic points method, particle swarm optimization, and the pattern search algorithm are implemented and compared with the single-machine maximum power extraction algorithm. Test results show that the particle swarm optimization and the pattern search algorithm have better performance. The output power of the wind farm increases by about 10 percent. The particle swarm optimization requires less computation while the pattern search algorithm obtains better and more practical results. Finally, the pattern search algorithm is used to improve economic benefits under different wind conditions.Yu ShenTannan XiaoQifeng LvXuemin ZhangYangfan ZhangYimei WangJinfang WuElsevierarticleWake effectCoordinated operation strategyParticle swarm optimizationPattern search algorithmElectrical engineering. Electronics. Nuclear engineeringTK1-9971ENEnergy Reports, Vol 8, Iss , Pp 84-90 (2022)
institution DOAJ
collection DOAJ
language EN
topic Wake effect
Coordinated operation strategy
Particle swarm optimization
Pattern search algorithm
Electrical engineering. Electronics. Nuclear engineering
TK1-9971
spellingShingle Wake effect
Coordinated operation strategy
Particle swarm optimization
Pattern search algorithm
Electrical engineering. Electronics. Nuclear engineering
TK1-9971
Yu Shen
Tannan Xiao
Qifeng Lv
Xuemin Zhang
Yangfan Zhang
Yimei Wang
Jinfang Wu
Coordinated optimal control of active power of wind farms considering wake effect
description In a large-scale wind farm, under the influence of the wake effect, the single-machine maximum power extraction control strategy would not be able to function at the ideal optimal value. It is important to study the coordinated operation strategy of the wind farm under the wake effect to improve the output power of wind farms and improve the economic benefit. In this paper, a practical wake model called the PARK model is used and a wake superposition model based on energy balance is derived. Based on these models, an optimization problem is formulated to maximize the output power of the wind farm considering the wake effect. Taking the Horns Rev offshore wind farm as an example, the stochastic points method, particle swarm optimization, and the pattern search algorithm are implemented and compared with the single-machine maximum power extraction algorithm. Test results show that the particle swarm optimization and the pattern search algorithm have better performance. The output power of the wind farm increases by about 10 percent. The particle swarm optimization requires less computation while the pattern search algorithm obtains better and more practical results. Finally, the pattern search algorithm is used to improve economic benefits under different wind conditions.
format article
author Yu Shen
Tannan Xiao
Qifeng Lv
Xuemin Zhang
Yangfan Zhang
Yimei Wang
Jinfang Wu
author_facet Yu Shen
Tannan Xiao
Qifeng Lv
Xuemin Zhang
Yangfan Zhang
Yimei Wang
Jinfang Wu
author_sort Yu Shen
title Coordinated optimal control of active power of wind farms considering wake effect
title_short Coordinated optimal control of active power of wind farms considering wake effect
title_full Coordinated optimal control of active power of wind farms considering wake effect
title_fullStr Coordinated optimal control of active power of wind farms considering wake effect
title_full_unstemmed Coordinated optimal control of active power of wind farms considering wake effect
title_sort coordinated optimal control of active power of wind farms considering wake effect
publisher Elsevier
publishDate 2022
url https://doaj.org/article/6369462353a645878e39770a626839f6
work_keys_str_mv AT yushen coordinatedoptimalcontrolofactivepowerofwindfarmsconsideringwakeeffect
AT tannanxiao coordinatedoptimalcontrolofactivepowerofwindfarmsconsideringwakeeffect
AT qifenglv coordinatedoptimalcontrolofactivepowerofwindfarmsconsideringwakeeffect
AT xueminzhang coordinatedoptimalcontrolofactivepowerofwindfarmsconsideringwakeeffect
AT yangfanzhang coordinatedoptimalcontrolofactivepowerofwindfarmsconsideringwakeeffect
AT yimeiwang coordinatedoptimalcontrolofactivepowerofwindfarmsconsideringwakeeffect
AT jinfangwu coordinatedoptimalcontrolofactivepowerofwindfarmsconsideringwakeeffect
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