Solar power forecasting using robust kernel extreme learning machine and decomposition methods

I. Majumder, R. Bisoi, N. Nayak, N. Hannoon
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引用次数: 2

Abstract

This paper proposes empirical mode decomposition (EMD)-based robust kernel extreme learning machine (RKELM) to achieve a precise predicted value of solar power generation in a smart grid environment. The non-stationary historical solar power data is initially decomposed into various intrinsic mode functions (IMFs) using EMD, which are subsequently passed through the proposed robust Morlet wavelet kernel extreme learning machine (RWKELM) for solar power prediction at different time horizons. Further a reduced kernel matrix version of RWKELM is used to decrease the training time significantly without appreciable loss of forecasting accuracy. By implementing the real time data for validation of the proposed method for short term solar power prediction it can be observed that the proposed EMD-based RWKELM outperforms various other methods, in terms of different performance matrices and execution time. The solar power prediction results on experimental data show the lowest error which proves the highest prediction accuracy.
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基于鲁棒核极值学习机和分解方法的太阳能发电预测
本文提出了基于经验模态分解(EMD)的鲁棒核极值学习机(RKELM)来实现智能电网环境下太阳能发电的精确预测值。首先利用EMD将非平稳的历史太阳能发电数据分解为各种内禀模态函数(IMFs),然后通过所提出的鲁棒Morlet小波核极值学习机(RWKELM)进行不同时间范围的太阳能发电预测。此外,RWKELM的简化核矩阵版本在预测精度没有明显损失的情况下显著减少了训练时间。通过实时数据验证所提出的短期太阳能发电预测方法,可以观察到,所提出的基于emd的RWKELM在不同的性能矩阵和执行时间方面优于其他各种方法。对实验数据的预测结果误差最小,证明了预测精度最高。
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来源期刊
International Journal of Power and Energy Conversion
International Journal of Power and Energy Conversion Energy-Energy Engineering and Power Technology
CiteScore
1.60
自引率
0.00%
发文量
8
期刊介绍: IJPEC highlights the latest trends in research in the field of power generation, transmission and distribution. Currently there exist significant challenges in the power sector, particularly in deregulated/restructured power markets. A key challenge to the operation, control and protection of the power system is the proliferation of power electronic devices within power systems. The main thrust of IJPEC is to disseminate the latest research trends in the power sector as well as in energy conversion technologies. Topics covered include: -Power system modelling and analysis -Computing and economics -FACTS and HVDC -Challenges in restructured energy systems -Power system control, operation, communications, SCADA -Power system relaying/protection -Energy management systems/distribution automation -Applications of power electronics to power systems -Power quality -Distributed generation and renewable energy sources -Electrical machines and drives -Utilisation of electrical energy -Modelling and control of machines -Fault diagnosis in machines and drives -Special machines
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