PyRQA -- Conducting Recurrence Quantification Analysis on Very Long Time Series Efficiently
January 18, 2024 Β· Declared Dead Β· π Computational Geosciences
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Authors
Tobias Rawald, Mike Sips, Norbert Marwan
arXiv ID
2402.16853
Category
cs.DC: Distributed Computing
Citations
53
Venue
Computational Geosciences
Last Checked
5 months ago
Abstract
PyRQA is a software package that efficiently conducts recurrence quantification analysis (RQA) on time series consisting of more than one million data points. RQA is a method from non-linear time series analysis that quantifies the recurrent behaviour of systems. Existing implementations to RQA are not capable of analysing such very long time series at all or require large amounts of time to calculate the quantitative measures. PyRQA overcomes their limitations by conducting the RQA computations in a highly parallel manner. Building on the OpenCL framework, PyRQA leverages the computing capabilities of a variety of parallel hardware architectures, such as GPUs. The underlying computing approach partitions the RQA computations and enables to employ multiple compute devices at the same time. The goal of this publication is to demonstrate the features and the runtime efficiency of PyRQA. For this purpose we employ a real-world example, comparing the dynamics of two climatological time series, and a synthetic example, reducing the runtime regarding the analysis of a series consisting of over one million data points from almost eight hours using state-of-the-art RQA software to roughly 69 seconds using PyRQA.
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