Better Multi-step Time Series Prediction Using Sparse and Deep Echo State Network

Kristsana Seepanomwan
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Abstract

Multi-step time series prediction is essential in real-world applications but challenging to obtain accurately due to a fallacy accumulation. Incrementing the required future steps typically results in performance degradation. Data-driven machine learning techniques have the potential to tackle this task but demand significant or special computing powers such as memory and graphics processing units (GPUs). This work demonstrates that Deep Echo State Network (DeepESN) with a sparse configuration can capture multi-step prediction in a comparable or even better performance while demanding lower resources and processing times. Most experimental results documented in the literature examine only one or a few multi-step ahead. Here we report the prediction of up to 250 future steps with better correlation-of-coefficient contrasting to the baseline models. Sparsing the projection of the input signal to each reservoir of the DeepESN can reduce the circumstances of overfitting in time series learning. This finding could lead to utilizing deep learning models with affordable resources and processing times.
基于稀疏和深度回波状态网络的多步时间序列预测
多步时间序列预测在实际应用中是必不可少的,但由于谬误积累而难以准确获得。增加所需的后续步骤通常会导致性能下降。数据驱动的机器学习技术有潜力解决这一任务,但需要显著或特殊的计算能力,如内存和图形处理单元(gpu)。这项工作表明,具有稀疏配置的深度回声状态网络(DeepESN)可以以相当甚至更好的性能捕获多步预测,同时需要更少的资源和处理时间。文献中记录的大多数实验结果只检查了一个或几个多步骤。在这里,我们报告了与基线模型相比具有更好的相关系数的多达250个未来步骤的预测。将输入信号的投影稀疏到DeepESN的每个库中,可以减少时间序列学习中的过拟合情况。这一发现可能会导致使用具有负担得起的资源和处理时间的深度学习模型。
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