Long-Term Electricity Load Forecasting Using Artificial Neural Network: The Case Study of Benin

Habib Conrad Sotiman Yotto, P. Chetangny, V. Zogbochi, J. Aredjodoun, S. Houndedako, G. Barbier, A. Vianou, D. Chamagne
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Abstract

Africans in general and specially Beninese’s low rate access to electricity requires efforts to set up new electricity production units. To satistfy the needs, it is therefore very important to have a prior knowledge of the electrical load. In this context, knowing the right need for the electrical energy to be extracted from the Beninese network in the long term and in order to better plan its stability and reliability, a forecast of this electrical load is then necessary. The study has used the annual power grid peak demand data from 2001 to 2020 to develop, train and validate the models. The electrical load peaks until 2030 are estimated as the output value. This article evaluates three algorithms of a method used in artificial neural networks (ANN) to predict electricity consumption, which is the Multilayer Perceptron (MLP) with backpropagation. To ensure stable and accurate predictions, an evaluation approach using mean square error (MSE) and correlation coefficient (R) has been used. The results have proved that the data predicted by the Bayesian regulation variant of the Multilayer Perceptron (MLP), is very close to the real data during the training and the learning of these algorithms. The validated model has developed high generalization capabilities with insignificant prediction deviations.
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基于人工神经网络的长期电力负荷预测——以贝宁为例
一般非洲人,特别是贝宁人的低用电率要求努力建立新的电力生产单位。因此,为了满足这些需求,事先了解电气负载是非常重要的。在这种情况下,了解长期从贝宁电网中提取的电能的正确需求,并为了更好地规划其稳定性和可靠性,因此有必要对该电力负荷进行预测。利用2001年至2020年的年度电网峰值需求数据,对模型进行了开发、训练和验证。估计到2030年的电力负荷峰值作为输出值。本文评估了一种用于人工神经网络(ANN)预测用电量的方法的三种算法,即具有反向传播的多层感知器(MLP)。为了保证预测的稳定性和准确性,采用了均方误差(MSE)和相关系数(R)的评价方法。结果表明,在这些算法的训练和学习过程中,多层感知器(MLP)的贝叶斯调节变体预测的数据与实际数据非常接近。经验证的模型具有较高的泛化能力,预测偏差较小。
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