A Coordinated Planning Method for Micrositing of Tidal Current Turbines and Collector System Optimization in Tidal Current Farms

A Coordinated Planning Method for Micrositing of Tidal Current Turbines and Collector System Optimization in Tidal Current Farms
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潮汐流发电场潮汐涡轮机选址与集热器系统优化的协调规划方法

DOI:
10.1109/tpwrs.2018.2865310
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发表时间:
2019
影响因子:
6.6
通讯作者:
Li Wenyuan
Li Wenyuan
中科院分区:
工程技术1区
文献类型:
--
作者:
Ren Zhouyang;Wang Yuanmeng;Li Hui;Liu Xuan;Wen Yunfeng;Li Wenyuan

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本文提出了一种潮流场规划的双层规划模型。潮流涡轮机(TCTs)的微观选址策略和收集器系统规划方案的协调,以实现更好的平衡的能量产量,TCF资本投资和电力系统的经济运行,使用所提出的方法。考虑到潮流速度和尾流效应的特点,建立了TCF的功率输出模型。以综合效益最大化为目标,建立了由一个上层模型和两个下层模型组成的协调计划模型。不仅考虑了TCT和海底电缆的投资和维护成本,而且还考虑了集电系统的运行成本以及TCF集成对电力系统运行的影响,以确保TCF业主和电力系统的长期利益。一个有效的解决方案,建议的规划模型开发相结合的遗传算法与混合整数规划。利用具有明显特征的潮流实测数据和IEEE30节点和118节点的测试系统验证了该方法的有效性和适应性。
This paper proposes a bilevel programming model for the planning of tidal current farms (TCFs). The micrositing strategy of tidal current turbines (TCTs) and the collector system planning scheme are coordinated to achieve a better balance of energy yields, TCF capital investment and power systems economic operation using the proposed method. The power output of the TCF is modeled considering the characteristics of tidal current velocity and wake effects. A coordinated planning model consisting of one upper level model and two lower level models is developed to maximize comprehensive profit. Not only the investment and maintenance costs of TCTs and submarine cables, but also the operation cost of the collector system and the impact of the TCF integration on the operation of power systems are all taken into account to ensure the long-term benefits of both TCF owners and power systems. An efficient solution for the proposed planning model is developed by combining a genetic algorithm with a mixed integer programming. The effectiveness and adaptability of the proposed method are demonstrated using the measured data of tidal current velocity with distinct characteristics and the IEEE 30- and 118-bus test systems.
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