WEC阵列机电传动系统网络化微电网控制设计与储能系统分析

D. Wilson, W. Weaver, G. Bacelli, R. Robinett
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引用次数: 6

摘要

本文的目的是研究波浪能量转换器(WEC)技术,这种技术需要将波浪中的能量转化为电网。回顾了WEC系统的组成部分,揭示了其性能、稳定性和效率。这些WEC系统的单个组件由;控制方法,机电传动系统,发电机,电力电子变换器,储能系统和电网集成。首先,对单个WEC系统从波浪到电网的能量转换进行了详细的探讨。然后提出了一种控制设计方法,以解决可再生能源(RES)的高渗透和联网交流/直流微电网孤岛子系统的负载。确定了网络化交直流微电网系统的静态和动态稳定条件。对机电传动系统进行了详细的数值模拟,包括:动态响应,多种波浪条件下的发电,能量/功率转换过程的总效率。作为可再生能源场景,采用交/直流微电网孤岛子系统来集成一系列微电网。根据可再生能源场景确定ESS (Energy Storage System)的初步功率需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
WEC Array Electro-Mechanical Drivetrain Networked Microgrid Control Design and Energy Storage System Analysis
The purpose of this paper is to investigate Wave Energy Converter (WEC) technologies that are required to transform power from the waves to the electrical grid. WEC system components are reviewed that reveal the performance, stability, and efficiency. These WEC system individual components consists of; control methods, electro-mechanical drive-train, generator machines, power electronic converters, energy storage systems, and electrical grid integration. Initially, the transformation of energy from the wave to the electric grid is explored in detail for an individual WEC system. A control design methodology is then presented that addresses high penetration of Renewable Energy Sources (RES) and loads for networked AC/DC microgrid islanded subsystems. Both static and dynamic stability conditions are identified for the networked AC/DC microgrid system. Detailed numerical simulations were conducted for the electro-mechanical drivetrain system which includes; the dynamic responses, power generation for multiple wave conditions, and total efficiency of the energy/power conversion process. As a renewable energy scenario, the AC/DC microgrid islanded subsystem is employed to integrate an array of WECs. Preliminary Energy Storage System (ESS) power requirements are determined for the renewable energy scenario.
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