基于转子角稳定性的太阳能和风能系统性能比较分析

A. A. Jhumka, Ah King Robert T. F., A. Khoodaruth, C. Ramasawmy
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摘要

到目前为止,太阳能光伏板和风力涡轮机是可再生能源发电快速增长的最大推动力。在全球范围内,2018年安装了100吉瓦的太阳能光伏,占可再生能源新增装机容量的55%;风能贡献了第二大份额,占可再生能源新增装机容量的28%。这两种技术都是成熟的,并且在脱碳场景中具有重要作用,是产生无排放电力的经过验证的概念。然而,随着可再生能源并网的趋势日益增加,在脱碳过程中也面临着许多挑战,其中电网的稳定性起着主导作用。惯性对电网的稳定性起着重要的作用。由于可再生能源(RES)渗透到电网中,由于同步发电机的位移以及越来越多地使用电力电子设备将可再生能源同步到电网,系统惯性降低。本文从转子角度稳定性的角度对两种系统的运行效率进行了技术评价。采用MATLAB/Simulink作为建模工具。结果表明,虽然风力发电机组的性能优于太阳能光伏发电机组,但太阳能光伏发电机组向电网输出的电力比风力发电机组更稳定,这需要电池储能系统(BESS)和额外的频率支持才能产生稳定的电力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Comparative Performance Analysis of Solar Energy and Wind Energy Systems using Rotor Angle Stability
Solar photovoltaic (PV) panels and wind turbines are by far the biggest drivers of the rapid increase in renewable energy electricity generation. Globally, in 2018, 100 gigawatts of solar PV were installed, contributing 55% of new renewable energy capacity; wind contributed the second largest share, with 28% of new renewable capacity. Both technologies are well established and feature heavily in decarbonisation scenarios as proven concepts to generate emission-free electricity. However, with this increasing trend of integrating renewable energy to the grid in the decarbonisation process entails lots of challenges among which stability of the grid plays a predominant role. Inertia plays an important role in the stability of the grid. Due to the penetration of the renewable energy sources (RES) to the grid, the system inertia is lowered because of the displacement of the synchronous generators along with the increasing use of the power electronics devices for synchronising the renewable power to the grid. This paper technically assesses the operational efficiency of both RES in terms of rotor angle stability. MATLAB/Simulink was used as the modelling tools. The results show that though wind turbines have a greater performance than the solar PV system, yet solar PV system can produce a more stable power to the grid than the wind turbine, which requires battery energy storage system (BESS) and additional frequency support to produce a stable power.
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