基于单片机的智能DC/DC变换器跟踪太阳能光伏组件最大功率点

Siwakoti Yam Prasad, Bhupendra Bimal Chhetri, B. Adhikary, D. Bista
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引用次数: 53

摘要

最大功率点跟踪(MPPT)是一种广泛应用于光伏组件太阳能电池最大功率提取的控制技术。由于太阳能电池具有非线性的i-v特性。光伏组件的效率非常低,功率输出取决于太阳日照水平和环境温度,因此以更高的效率最大化功率输出是特别感兴趣的。此外,由于电源和负载不匹配,功率损失很大。因此,为了从太阳能电池板中提取最大的能量,需要设计一个MPPT。本文的目标是提出一种新的基于微控制器的太阳能光伏系统MPPT系统,以确保在所有快速变化的环境条件下快速运行最大功率点。该控制方案利用PWM技术将升压DC/DC变换器的输出功率调节到最大可能值,同时控制电池的充电过程。采用增量电导算法跟踪最大功率点。为进行变换器系统设计的可行性研究、参数提取、模型评估和分析,对京瓷KC-40型典型40W太阳能电池板进行了MATLAB/Simulink仿真,进行了硬件实现和验证。最后,设计了硬件模型,并在实验室进行了不同工况下的测试。此外,MPPT系统在不同的太阳光照水平和温度下进行了测试。由此产生的系统具有高效率、低成本、非常快的跟踪速度,并且可以很容易地修改为将来使用的额外控制功能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microcontroller based intelligent DC/DC converter to track Maximum Power Point for solar photovoltaic module
Maximum Power Point Tracking (MPPT) is widely used control technique to extract maximum power available from the solar cell of photovoltaic (PV) module. Since the solar cells have non-linear i–v characteristics. The efficiency of PV module is very low and power output depends on solar insolation level and ambient temperature, so maximization of power output with greater efficiency is of special interest. Moreover there is great loss of power due to mismatch of source and load. So, to extract maximum power from solar panel a MPPT needs to be designed. The objective of the paper is to present a novel cost effective and efficient microcontroller based MPPT system for solar photovoltaic system to ensure fast maximum power point operation at all fast changing environmental conditions. The proposed controller scheme utilizes PWM techniques to regulate the output power of boost DC/DC converter at its maximum possible value and simultaneously controls the charging process of battery. Incremental Conductance algorithm is implemented to track maximum power point. For the feasibility study, parameter extraction, model evaluation and analysis of converter system design a MATLAB/Simulink model is demonstrated and simulated for a typical 40W solar panel from Kyocera KC-40 for hardware implementation and verification. Finally, a hardware model is designed and tested in lab at different operating conditions. Further, MPPT system has been tested with Solar Panel at different solar insolation level and temperature. The resulting system has high-efficiency, lower-cost, very fast tracking speed and can be easily modified for additional control function for future use.
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