Feasibility of Hybrid Neuro-Fuzzy (ANFIS) Machine Learning Model with Classical Multi-Linear Regression (MLR) For the Simulation of Solar Radiation: A Case Study Abuja, Nigeria

N. Gafai, A. T. Belgore
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Abstract

: The extremely variable nature of solar radiation makes it difficult for solar power plants to keep up with predicted power output and demand curves. As a result, solar radiation simulation is crucial to the efficient design, administration, and operation of any solar power plant. With only partially satisfactory results, empirical models have been routinely employed in Nigeria to predict solar radiation from easily measurable environmental characteristics like temperature, humidity and cloud cover. Only a few machine learning models have been used to predict sun radiation in Nigeria, despite the global trend toward machine learning. With almost no published work utilizing Abuja as a case study, machine learning algorithms for simulating sun radiation in Nigeria have not been sufficiently studied. By contrasting the performance of the conventional Multi-Linear Regression (MLR) model with the cutting-edge machine learning model, ANFIS, this study seeks to close this gap and establish which model is more suited and accurate for forecasting solar radiation in Abuja, Nigeria. Data for daily measured climatic variables, such as maximum and minimum temperatures, relative humidity, precipitation, maximum and minimum wind speeds, sunshine hours, and solar radiation were retrieved for this study over ten years from the National Space Research and Development Agency, (NASDRA) Abuja. R, R 2 , RMSE, and MSE were used to simulate and assess the performance of various model combinations throughout both the training and testing stages. When compared to the best MLR model simulation, ANFIS model 8 was shown to generate accurate results.
基于经典多元线性回归(MLR)的混合神经模糊(ANFIS)机器学习模型在太阳辐射模拟中的可行性:以尼日利亚阿布贾为例
当前位置太阳辐射极不稳定的特性使得太阳能发电厂很难跟上预测的功率输出和需求曲线。因此,太阳辐射模拟对任何太阳能发电厂的有效设计、管理和运行至关重要。尼日利亚经常使用经验模型,根据容易测量的环境特征(如温度、湿度和云量)预测太阳辐射,结果只有部分令人满意。尽管机器学习是全球趋势,但在尼日利亚,只有少数机器学习模型被用于预测太阳辐射。由于几乎没有将阿布贾作为案例研究的出版作品,因此对尼日利亚模拟太阳辐射的机器学习算法的研究还不够充分。通过对比传统的多元线性回归(MLR)模型与先进的机器学习模型ANFIS的性能,本研究试图缩小这一差距,并确定哪种模型更适合和准确地预测尼日利亚阿布贾的太阳辐射。每日测量的气候变量数据,如最高和最低温度、相对湿度、降水、最大和最小风速、日照时数和太阳辐射,为本研究检索了来自国家空间研究与发展局(NASDRA)阿布贾的十年数据。使用R、r2、RMSE和MSE来模拟和评估各种模型组合在整个训练和测试阶段的性能。与最佳MLR模型仿真结果相比,ANFIS模型8的仿真结果更为准确。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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