An order parameter for synchronisation of angular velocities

Abstract Order parameters have proved a vital tool for simplifying and understanding complex dynamics in a range of physical systems. However, applying these approaches to the high-dimensional time-dependent variability inherent to thermodynamically open systems—such as those found in neural networks and climate dynamics—remains a challenge. We introduce a novel order parameter based on alignment of component frequencies, in contrast to the widely used Kuramoto order parameter’s alignment of process phases. We present numerical simulations comparing this new parameter to the Kuramoto order parameter in a range of models, including a prototypical phase-oscillator model relevant to many open systems, such as neuronal dynamics. These results show that the new parameter more accurately identifies synchronisation in conditions characteristic of open systems, revealing dynamics entirely missed by established methods.

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Publication Details

Journal
The European Physical Journal Special Topics
Published
2025-11-03
DOI
https://doi.org/10.1140/epjs/s11734-025-01984-3
Primary Topic
Nonlinear Dynamics and Pattern Formation
Type
article
Field-Weighted Citation Impact
0.00

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article

An order parameter for synchronisation of angular velocities

Julian Newman, Aneta Stefanovska, Philip T. Clemson, Joe Rowland Adams
The European Physical Journal Special Topics
Nonlinear Dynamics and Pattern Formation
article

An order parameter for synchronisation of angular velocities

Julian Newman, Aneta Stefanovska, Philip T. Clemson, Joe Rowland Adams
article en

Abstract

Abstract Order parameters have proved a vital tool for simplifying and understanding complex dynamics in a range of physical systems. However, applying these approaches to the high-dimensional time-dependent variability inherent to thermodynamically open systems—such as those found in neural networks and climate dynamics—remains a challenge. We introduce a novel order parameter based on alignment of component frequencies, in contrast to the widely used Kuramoto order parameter’s alignment of process phases. We present numerical simulations comparing this new parameter to the Kuramoto order parameter in a range of models, including a prototypical phase-oscillator model relevant to many open systems, such as neuronal dynamics. These results show that the new parameter more accurately identifies synchronisation in conditions characteristic of open systems, revealing dynamics entirely missed by established methods.

The European Physical Journal Special Topics
Aston University (GB), University of Exeter (GB), Lancaster University (GB)
Engineering and Physical Sciences Research Council, Division of Mathematical Sciences
Openalex Percentile: Top 62%
Nonlinear Dynamics and Pattern Formation
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