F Bai, X Ju, S Wang, W Zhou, F Liu - Energy Conversion and Management, 2022 - Elsevier
Recent years have witnessed an enormous growth of wind farm capacity worldwide. Due to the wake effect, the velocity of incoming wind is reduced for the wind turbines in the …
This paper presents a model to incorporate the secondary effects of wake steering in large arrays of turbines. Previous models have focused on the aerodynamic interaction of wake …
A new framework for Wind Farm Layout Optimization (WindFLO) is developed to accelerate the design of wind farms. The framework provides a large set of analytical wake models and …
Selecting a wind farm layout optimization method is difficult. Comparisons between optimization methods in different papers can be uncertain due to the difficulty of exactly …
A novel approach for the solution of the wind farm layout optimization problem is presented. The annual energy production is maximized with constraints on the minimum and maximum …
D Bensason, E Simley, O Roberts, P Fleming… - Journal of Renewable …, 2021 - pubs.aip.org
The wind power plant-wide control strategy known as wake steering involves the misalignment of upstream turbines with the wind direction to deflect wakes away from …
The aerodynamic interactions of wind turbines within a wind farm cause major energy losses. Yaw control is a promising active strategy to tackle this issue in real time during the …
Z Wang, Y Tu, K Zhang, Z Han, Y Cao, D Zhou - Ocean Engineering, 2024 - Elsevier
Wind farm layout optimization (WFLO) seeks to alleviate the wake loss and maximize wind farm power output efficiency, and is a crucial process in the design and planning of wind …
JJ Thomas, S McOmber, A Ning - Wind Energy, 2022 - Wiley Online Library
In this paper we present a continuation optimization method for reducing multi‐modality in the wind farm layout optimization problem that we call wake expansion continuation (WEC) …