MPPT的定义和验证:一种新的基于模型的方法

L. Cristaldi, M. Faifer, M. Rossi, S. Toscani
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引用次数: 19

摘要

太阳辐射是最容易获得的可再生能源之一,但其利用受到环境和技术因素的强烈影响。特别是,转换过程与辐照度水平和光伏组件的温度严格相关。此外,众所周知,转换效率相当低,普通装置约为15%。为了估计太阳能发电厂在任何条件下的效率和预测最大功率转换的工作点,了解组件的行为是极其重要的。该任务由最大功率点(MPPT)跟踪器执行:它在给定的辐射和温度条件下最大化光伏系统的输出功率,从而优化效率。MPPT的核心是实现的算法,该算法致力于寻找和维持最大功率点附近的操作。在本文中,从一组方程建模的光伏组件,提出了一个创新的过程,以确定和达到MPP,并实验验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
MPPT definition and validation: A new model-based approach
Solar radiation is one of the most accessible renewable energy resources but its employment is strongly influenced by environmental and technological factors. In particular, the conversion process is strictly connected to the irradiance level and to the temperature of the photovoltaic module. Moreover it is well known that the conversion efficiency is quite low, about 15% for common installations. It is extremely important to know the behaviour of the module in order to estimate the efficiency of the solar plant in any condition and to predict the working point where maximum power is converted. This task is performed by the tracker of the Maximum Power Point (MPPT): it maximizes the power output of a PV system for assigned conditions of radiation and temperature, thus optimizing the efficiency. The core of the MPPT is represented by the implemented algorithm devoted to find and maintain the operation near to the Maximum Power Point (MPP). In the present paper, starting from the set of equations modelling a PV module, an innovative procedure to identify and reach the MPP is presented and experimentally verified.
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