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On Multivariate Financial Time Series Classification

Grégory Bournassenko

TL;DR

The paper addresses the challenge of classifying multivariate financial time series across small- and large-data regimes. It contrasts traditional approaches like SVMs and RNN/LSTM methods on small datasets with cutting-edge big-data techniques such as ConvTimeNet and graph-based ideas on large, high-dimensional financial series, including EUR/USD. It demonstrates that small data benefit from regularization and multivariate enrichment, while big data require scalable architectures and parallel computing, with ConvTimeNet showing strong performance and 20% cumulative returns on EUR/USD in one scenario. The work underscores infrastructure considerations (Spark, GPU) and points to non-Euclidean extensions (GNNs) as promising directions for future gains in finance analytics.

Abstract

This article investigates the use of Machine Learning and Deep Learning models in multivariate time series analysis within financial markets. It compares small and big data approaches, focusing on their distinct challenges and the benefits of scaling. Traditional methods such as SVMs are contrasted with modern architectures like ConvTimeNet. The results show the importance of using and understanding Big Data in depth in the analysis and prediction of financial time series.

On Multivariate Financial Time Series Classification

TL;DR

The paper addresses the challenge of classifying multivariate financial time series across small- and large-data regimes. It contrasts traditional approaches like SVMs and RNN/LSTM methods on small datasets with cutting-edge big-data techniques such as ConvTimeNet and graph-based ideas on large, high-dimensional financial series, including EUR/USD. It demonstrates that small data benefit from regularization and multivariate enrichment, while big data require scalable architectures and parallel computing, with ConvTimeNet showing strong performance and 20% cumulative returns on EUR/USD in one scenario. The work underscores infrastructure considerations (Spark, GPU) and points to non-Euclidean extensions (GNNs) as promising directions for future gains in finance analytics.

Abstract

This article investigates the use of Machine Learning and Deep Learning models in multivariate time series analysis within financial markets. It compares small and big data approaches, focusing on their distinct challenges and the benefits of scaling. Traditional methods such as SVMs are contrasted with modern architectures like ConvTimeNet. The results show the importance of using and understanding Big Data in depth in the analysis and prediction of financial time series.

Paper Structure

This paper contains 47 sections, 69 equations, 38 figures, 1 table, 2 algorithms.

Figures (38)

  • Figure 1: Example of windowing susto2018time
  • Figure 2: A unified deep learning framework for time series classification ismail2019deep
  • Figure 3: Architecture of a standard LSTM (NLP) wang2016attention
  • Figure 4: Early stopping based on cross-validation genccay2001pricing
  • Figure 5: Strike daily closing price (2024-06-04 to 2024-09-18)
  • ...and 33 more figures