Design and Implementation of P&O Maximum Power Point Tracker Algorithm Based Solar Charge Controller

H. Akdeniz, A. Yönetken
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引用次数: 1

Abstract

: Solar energy is one of the main sources of renewable energy. In photovoltaic systems, energy is obtained from photovoltaic batteries In photovoltaic batteries, the current and voltage do not increase linearly. This causes the power to take different values. There is a point where power reaches its peak. Detecting this point called the maximum power point and transferring the energy to the load at this point, reduces the losses and increases the efficiency. Many microcontroller controlled circuits have been designed and algorithms have been developed for maximum power point trackingPerturb and Observe algorithm is the most widely used algorithm. In this study; Maximum Power Point Tracker Algorithm Based Solar Charge Controller is designed. Arduino microcontroller card was used as it has easy programmability and rapid prototype development. Developed charge regulator determines the maximum power point by measuring the current voltage values and charge the battery at this point. The current, voltage, battery charge rate and charge status information obtained from the charge controller can be monitored by android mobile devices. The developed charge control circuit has been tested using a 45 Watt photovoltaic panel under different weather conditions. It was observed that it followed the maximum power point.
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基于P&O最大功率跟踪算法的太阳能充电控制器的设计与实现
太阳能是可再生能源的主要来源之一。在光伏系统中,能量来自光伏电池。在光伏电池中,电流和电压不是线性增加的。这导致了权力的不同值。有一个点,权力达到顶峰。检测这个点称为最大功率点,并将能量转移到这个点的负载,减少了损耗,提高了效率。目前已经设计了许多微控制器控制电路,并开发了许多最大功率点跟踪算法,其中perturb和Observe算法是应用最广泛的算法。在本研究中;设计了基于最大功率点跟踪算法的太阳能充电控制器。使用Arduino微控制器卡,它具有易于编程和快速原型开发的特点。开发的充电调节器通过测量电流电压值来确定最大功率点,并在该点对电池充电。从充电控制器获取的电流、电压、电池充电速率和充电状态信息可以通过android移动设备进行监控。开发的充电控制电路已经在不同天气条件下使用45瓦的光伏板进行了测试。据观察,它遵循最大功率点。
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