Dataset in support of the article "Multiscale geometrical and topological learning in the analysis of soft matter collective dynamics"
Dataset in support of the article "Multiscale geometrical and topological learning in the analysis of soft matter collective dynamics"
Understanding the behavior and evolution of a dynamical many-body system by analyzing patterns in their experimentally captured images is a promising method relevant for a variety of living and non-living self-assembled systems. The arrays of moving liquid crystal skyrmions studied here are a representative example of hierarchically organized materials that exhibit complex spatiotemporal dynamics driven by multiscale processes. Joint geometric and topological data analysis (TDA) offers a powerful framework for investigating such systems by capturing the underlying structure of the data at multiple scales. In the TDA approach, we introduce the Ψ function, a robust numerical topological descriptor related to both the spatiotemporal changes in the size and shape of individual topological solitons and the emergence of regions with their different spatial organization. The geometric method based on the analysis of vector fields generated from images of skyrmion ensembles offers insights into the nonlinear physical mechanisms of the system’s response to external stimuli and provides a basis for comparison with theoretical predictions. The methodology presented here is very general and can provide a characterization of system behavior both at the level of individual pattern-forming agents and as a whole, allowing one to relate the results of image data analysis to processes occurring in a physical, chemical, or biological system in the real world.
University of Southampton
Kaczmarek, Malgosia
408ec59b-8dba-41c1-89d0-af846d1bf327
D'Alessandro, Giampaolo
bad097e1-9506-4b6e-aa56-3e67a526e83b
Orlova, Tetiana
7b190d43-4489-4d4f-89d9-75eec72030ae
Membrillo Solis, Ingrid
c458faf5-8cdb-4618-ba90-f8a90209f20a
Madeleine, Tristan
e2b572ce-f77f-40d6-9b2f-9e581ca95944
Brodzki, Jacek
b1fe25fd-5451-4fd0-b24b-c59b75710543
Smalyukh, Ivan
8b732e4b-bf5b-4b4d-a296-21e91a1dfff6
Sohn, Hayley
75c9a091-7048-4a78-a082-2655135458db
Kaczmarek, Malgosia
408ec59b-8dba-41c1-89d0-af846d1bf327
D'Alessandro, Giampaolo
bad097e1-9506-4b6e-aa56-3e67a526e83b
Orlova, Tetiana
7b190d43-4489-4d4f-89d9-75eec72030ae
Membrillo Solis, Ingrid
c458faf5-8cdb-4618-ba90-f8a90209f20a
Madeleine, Tristan
e2b572ce-f77f-40d6-9b2f-9e581ca95944
Brodzki, Jacek
b1fe25fd-5451-4fd0-b24b-c59b75710543
Smalyukh, Ivan
8b732e4b-bf5b-4b4d-a296-21e91a1dfff6
Sohn, Hayley
75c9a091-7048-4a78-a082-2655135458db
Kaczmarek, Malgosia, D'Alessandro, Giampaolo, Orlova, Tetiana, Membrillo Solis, Ingrid, Madeleine, Tristan, Brodzki, Jacek, Smalyukh, Ivan and Sohn, Hayley
(2025)
Dataset in support of the article "Multiscale geometrical and topological learning in the analysis of soft matter collective dynamics".
University of Southampton
doi:10.5258/SOTON/D3769
[Dataset]
Abstract
Understanding the behavior and evolution of a dynamical many-body system by analyzing patterns in their experimentally captured images is a promising method relevant for a variety of living and non-living self-assembled systems. The arrays of moving liquid crystal skyrmions studied here are a representative example of hierarchically organized materials that exhibit complex spatiotemporal dynamics driven by multiscale processes. Joint geometric and topological data analysis (TDA) offers a powerful framework for investigating such systems by capturing the underlying structure of the data at multiple scales. In the TDA approach, we introduce the Ψ function, a robust numerical topological descriptor related to both the spatiotemporal changes in the size and shape of individual topological solitons and the emergence of regions with their different spatial organization. The geometric method based on the analysis of vector fields generated from images of skyrmion ensembles offers insights into the nonlinear physical mechanisms of the system’s response to external stimuli and provides a basis for comparison with theoretical predictions. The methodology presented here is very general and can provide a characterization of system behavior both at the level of individual pattern-forming agents and as a whole, allowing one to relate the results of image data analysis to processes occurring in a physical, chemical, or biological system in the real world.
More information
Published date: November 2025
Identifiers
Local EPrints ID: 507370
URI: http://eprints.soton.ac.uk/id/eprint/507370
PURE UUID: afb0c856-34a8-4833-9cb0-75599feb6999
Catalogue record
Date deposited: 05 Dec 2025 17:51
Last modified: 06 Dec 2025 03:08
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Contributors
Creator:
Tristan Madeleine
Creator:
Ivan Smalyukh
Creator:
Hayley Sohn
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