快速变化辐照度下测定最大功率点的增量电导极限及基于快速扫描的替代技术

Wenpeng Deng, G. Amaratunga
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引用次数: 5

摘要

在光伏(PV)能源系统中,最大功率点跟踪(MPPT)是有效利用太阳能转换的关键。有很多MPPT算法。增量电导(IncCond)是一种流行的算法,广泛用于快速变化的大气条件。结果表明,与最流行的基于经验的Perturb和Observe (P&O)方法相比,该方法的收敛速度没有显著提高。本文提出了一种在快速变化的大气和部分遮阳条件下跟踪MPP的替代方法。该方法可以在20ms内收敛到MPP,以响应100% ~ 30%的辐射突变。这是迄今为止报道的最快的收敛时间,它还具有在部分遮阳条件下找到全局峰值的能力。还讨论了任何MPPT算法收敛速度的最终限制。
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Limits of Incremental Conductance for determining the Maximum Power Point under rapidly changing irradiance and an alternative technique based on fast scanning
In Photovoltaic (PV) energy systems, Maximum Power Point Tracking (MPPT) is essential in order to efficiently use the solar energy converted. There are many MPPT algorithms. Incremental Conductance (IncCond) is a popular algorithm which is widely used for rapidly changing atmospheric conditions. It is shown that it has no significant increase in convergence speed compared with the most popular empirically based Perturb and Observe (P&O) methods. In this paper, an alternative is proposed to track the MPP under rapidly changing atmospheric and partial shading conditions. In response to a sudden change in radiation from 100% to 30%, this method can converge to the MPP in 20ms. This is the fastest convergence time reported to date, which also has the capability of finding the global peak under partial shading conditions. The ultimate limit of how fast any MPPT algorithm can converge is also discussed.
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