基于模糊逻辑的集成冷却系统提高光伏发电效率

Seflahir Dinata, A. F. Mohamad Ayob, Aliashim Albani, Raynaldi Cristian, Donie Agus Ardianto, Ojak Abdul Rozak
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引用次数: 0

摘要

光伏温度是影响光伏性能的一个重要参数。PV温度升高会导致PV输出电压下降,这表明PV没有达到最佳工作状态。本文提出了一种基于模糊逻辑的光伏温度综合控制系统的设计方案。实际上,这将潜在地确保PV性能处于其最大状态。在这项工作中,PV的温度是通过附加一个冷却系统来保持恒定的。冷却系统的恒温是通过散热器和带有电子控制的热电来实现的。实验采用两台320瓦的光伏系统;一种有冷却装置,而另一种没有冷却系统作为控制。每台光伏的温度、电压、电流、辐射测量等重要数据采集时间为3天,采集时间为10:00 - 17:00,每次测量间隔为10分钟。综合冷却系统测量结果显示,与控制光伏机组相比,光伏发电和效率增加了1.32%。从研究结果可以看出,模糊逻辑控制冷却系统有助于提高光伏发电性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fuzzy Logic-based Integrated Cooling System to Improve PV Efficiency
Photovoltaic (PV) temperature is an important parameter that can influence PV performance. The increase in PV temperature can cause a drop in PV output voltage, which indicates that the PV does not operate optimally. In this paper, a design of an integrated cooling system based on fuzzy logic to control the PV temperature is presented. This, in effect, will potentially ensure that the PV performance is at its maximum condition. In this work, the temperature of the PV is kept constant by attaching a cooling system that carries water inside it. The constant temperature of the cooling system is carried out through a radiator and thermoelectric with electronic control. The experiments are carried out using two 320-watt PV systems; one with the cooling mechanism and the latter without the cooling system as a control. Several important data such as temperature, voltage, current, and radiation measurement in each PV were collected for three days from 10:00 to 17:00 with an interval of 10 minutes for each measurement. The results of the integrated cooling system measurement showed an increase in PV power generation and efficiency of 1.32% compared to the control PV unit. From the results of the study, it can be concluded that the fuzzy logic-controlled cooling system contributed to the increase in PV performance.
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