Quantile deep learning models for multi-step ahead time series prediction

• We present a novel quantile regression deep learning framework for multi-step time series prediction. • We elevate the capabilities of deep learning models by incorporating quantile regression. • We include multivariate and univariate modelling strategies and compare with conventional deep learning models. • The model provide additional predictions without a loss in the prediction accuracy when compared to the literature. Uncertainty quantification is crucial in time series prediction, and quantile regression offers a valuable mechanism for uncertainty quantification, which is useful for extreme value forecasting. Although deep learning models have been prominent in multi-step ahead prediction, the development and evaluation of quantile deep learning models have been limited. We present a novel quantile regression deep learning framework for multi-step time series prediction. In this way, we elevate the capabilities of deep learning models by incorporating quantile regression, thus providing a more nuanced understanding of predictive values. We provide an implementation of prominent deep learning models for multi-step ahead time series prediction and evaluate their performance under high volatility and extreme conditions. We include multivariate and univariate modelling, strategies, and provide a comparison with conventional deep learning models from the literature. Our models are tested on two cryptocurrencies: Bitcoin and Ethereum, using daily close-price data and selected benchmark time series datasets. The results show that integrating a quantile loss function with deep learning provides additional predictions for selected quantiles without a loss in prediction accuracy. Our quantile model can handle volatility more effectively and provides uncertainty quantification through the use of quantiles when compared to conventional deep learning models.

Authors

Publication Details

Journal
Applied Soft Computing
Published
2025-10-15
DOI
https://doi.org/10.1016/j.asoc.2025.114043
Citations
1
Primary Topic
Neural Networks and Applications
Type
article
Field-Weighted Citation Impact
2.48
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article

Quantile deep learning models for multi-step ahead time series prediction

Joseph Cheung, Shriram S. Rangarajan, Rohtiash Chandra, Amelia Maddocks
1 citations
Applied Soft Computing
Neural Networks and Applications
2.48
article

Quantile deep learning models for multi-step ahead time series prediction

Joseph Cheung, Shriram S. Rangarajan, Rohtiash Chandra, Amelia Maddocks
article en
1 citations

Abstract

• We present a novel quantile regression deep learning framework for multi-step time series prediction. • We elevate the capabilities of deep learning models by incorporating quantile regression. • We include multivariate and univariate modelling strategies and compare with conventional deep learning models. • The model provide additional predictions without a loss in the prediction accuracy when compared to the literature. Uncertainty quantification is crucial in time series prediction, and quantile regression offers a valuable mechanism for uncertainty quantification, which is useful for extreme value forecasting. Although deep learning models have been prominent in multi-step ahead prediction, the development and evaluation of quantile deep learning models have been limited. We present a novel quantile regression deep learning framework for multi-step time series prediction. In this way, we elevate the capabilities of deep learning models by incorporating quantile regression, thus providing a more nuanced understanding of predictive values. We provide an implementation of prominent deep learning models for multi-step ahead time series prediction and evaluate their performance under high volatility and extreme conditions. We include multivariate and univariate modelling, strategies, and provide a comparison with conventional deep learning models from the literature. Our models are tested on two cryptocurrencies: Bitcoin and Ethereum, using daily close-price data and selected benchmark time series datasets. The results show that integrating a quantile loss function with deep learning provides additional predictions for selected quantiles without a loss in prediction accuracy. Our quantile model can handle volatility more effectively and provides uncertainty quantification through the use of quantiles when compared to conventional deep learning models.

Applied Soft ComputingVol. 186
Openalex Percentile: Top 8%
Neural Networks and Applications
2.48
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