基于神经模糊的太阳能光伏板混合冷却系统MPPT

Rickric O. Gratela, Joyce Ann S. Martes, Gerome I. Pagatpatan, Jessa P. Pagkaliwangan, Diether Kyle A. Torcuato, Timothy M. Amado, Aaron U. Aquino, J. M. Ramos, E. Fernandez, I. Valenzuela
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引用次数: 3

摘要

如今,太阳能光伏板作为一种替代能源被方便地使用。由于光伏电池的能量转换较低,大多数面板的效率较低。温度升高会导致长时间运行不足。冷却系统的主要功能是保持工作温度不超过一定限度。本研究提供了三种不同设置的比较,其中包括使用混合风冷,水冷系统和基于神经模糊的MPPT充电控制器。实验以15◦的固定角度进行,基于同时操作的位置。然后,对电流、电压、温度和勒克斯传感器收集的数据进行评估,以进行成本效益分析。因此,考虑到每个系统的总成本和损失,对三种装置的总体效率进行了评估。结果进一步表明,与所使用面板的预期评级相比,所有设置的效率都显着提高。此外,结果表明,在使用基于神经模糊的最大功率点跟踪充电控制器的同时,使用流经前表面的水和后部的风扇冷却可以产生最高的效率。提出的基于自适应神经模糊推理系统(ANFIS)的MPPT的RMSE值为1.5666e-05。
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Neuro-Fuzzy based MPPT for Solar PV Panel Hybrid Cooling System
Solar Photovoltaic Panels are conveniently used as an alternative source of energy, nowadays. Most panels have low efficiency due to low energy conversion of photovoltaic cells. The increase in temperature causes deficiency over long period of operation. Cooling systems’ main function is to maintain the operating temperature not to exceed a certain limit. This study provides the comparison of three different setups, which includes the use of a hybrid air-cooling, and water-cooling system and neuro-fuzzy based MPPT charge controller. Experiments are performed at a fixed angle of 15◦ based on location operating simultaneously. Afterwards, data gathered by the current, voltage, temperature and lux sensors are assessed for a cost-benefit analysis. Consequently, the overall efficiency of the three setups were evaluated in consideration with the total costs and losses of each system. The results further showed a significant increase of efficiency for all setups compared to the expected rating of the panel used. Moreover, the outcome shows that the use of water flowing over the front surface with fan cooling at the back while using the neuro-fuzzy based maximum power-point tracking charge controller yields the highest efficiency. The proposed Adaptive Neuro-Fuzzy Inference System (ANFIS) based MPPT yields a RMSE value of 1.5666e-05.
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