抽水
光伏系统
最大功率原理
人工神经网络
最大功率点跟踪
离心泵
人口
环境科学
MATLAB语言
计算机科学
汽车工程
工程类
电气工程
机械工程
人工智能
电压
操作系统
社会学
人口学
叶轮
入口
逆变器
作者
Rogger José Andrade Cedeño,Victor Joel Pinargote-Bravo,Carlos David Amaya-Jaramillo,Luisa Anabel Palacios-López,Alfonso Tomas Loor-Vera,Jesús Pérez‐Rodríguez,Ciaddy Gina Rodríguez-Borges
出处
期刊:Energy Reports
[Elsevier BV]
日期:2023-07-24
卷期号:10: 719-733
被引量:9
标识
DOI:10.1016/j.egyr.2023.07.027
摘要
The main economic activities in rural areas of Ecuador are agriculture and livestock rearing, with water being the primary resource for these activities. Approximately 3% of the rural population lacks access to the conventional electrical grid, so photovoltaic pumping systems can fulfil the need to capture and distribute water without emitting greenhouse gases. This research aims to study the appropriate technologies to develop a photovoltaic pumping system for future implementation in rural areas of Ecuador, based on a centrifugal pump, induction motor, variable speed drive, and powered by a photovoltaic array. Simulink/MATLAB R2019B is used for system modelling and simulation. Additionally, two maximum power point tracking methods are studied, the perturb and observe algorithm and the artificial neural network algorithm. The simulation results show that when using the artificial neural network maximum power point tracking technique, the system performs better, being faster in transitions and presenting fewer oscillations in the steady state. The EN50530 standard is also employed to test the performance of the maximum power point tracker, and as a result, the artificial neural network-based algorithm achieves the highest efficiency of 99.5%. Finally, it is shown how the automatic regulation of speed allows adjustment of the pumping capacity in response to variations in irradiation and temperature. Even in unfavourable levels of irradiation and temperature, the water supply is not interrupted, and the pump capacity is adjusted to the maximum power supplied by the photovoltaic array.
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