Toward a unified taxonomy of information dynamics via Integrated Information Decomposition

Our ability to understand and control complex systems of many interacting parts remains limited. A key challenge is that we still do not know how best to describe-and quantify-the many-to-many dynamical interactions that characterize their complexity. To address this limitation, we introduce the mathematical framework of Integrated Information Decomposition, or [Formula: see text]ID. [Formula: see text]ID provides a comprehensive framework to disentangle and characterize the information dynamics of complex multivariate systems. On the theoretical side, [Formula: see text]ID reveals the existence of previously unreported modes of collective information flow, providing tools to express well-known measures of information transfer, information storage, and dynamical complexity as aggregates of these modes, thereby overcoming some of their known theoretical shortcomings. On the empirical side, we validate our theoretical results with computational models and examples from over 1,000 biological, social, physical, and synthetic dynamical systems. Altogether, [Formula: see text]ID improves our understanding of the behavior of widely used measures for characterizing complex systems across disciplines and leads to new more refined analyses of dynamical complexity.

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Publication Details

Journal
Proceedings of the National Academy of Sciences
Published
2025-09-22
DOI
https://doi.org/10.1073/pnas.2423297122
Citations
10
Primary Topic
Neural dynamics and brain function
Type
article
Field-Weighted Citation Impact
14.31
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article

Toward a unified taxonomy of information dynamics via Integrated Information Decomposition

Daniel Bor, Adam B. Barrett, Fernando E. Rosas, Robin Lester Carhart-Harris et al.
10 citations
Proceedings of the National Academy of Sciences
Neural dynamics and brain function
14.31
article

Toward a unified taxonomy of information dynamics via Integrated Information Decomposition

Daniel Bor, Adam B. Barrett, Fernando E. Rosas, Robin Lester Carhart-Harris, Andrea I. Luppi, Pedro A. M. Mediano, Anil K. Seth
article en
10 citations

Abstract

Our ability to understand and control complex systems of many interacting parts remains limited. A key challenge is that we still do not know how best to describe-and quantify-the many-to-many dynamical interactions that characterize their complexity. To address this limitation, we introduce the mathematical framework of Integrated Information Decomposition, or [Formula: see text]ID. [Formula: see text]ID provides a comprehensive framework to disentangle and characterize the information dynamics of complex multivariate systems. On the theoretical side, [Formula: see text]ID reveals the existence of previously unreported modes of collective information flow, providing tools to express well-known measures of information transfer, information storage, and dynamical complexity as aggregates of these modes, thereby overcoming some of their known theoretical shortcomings. On the empirical side, we validate our theoretical results with computational models and examples from over 1,000 biological, social, physical, and synthetic dynamical systems. Altogether, [Formula: see text]ID improves our understanding of the behavior of widely used measures for characterizing complex systems across disciplines and leads to new more refined analyses of dynamical complexity.

Proceedings of the National Academy of SciencesVol. 122(39)
Canadian Institute for Advanced Research (CA), University of Sussex (GB), Queen Mary University of London (GB), St. John's College of Nursing (US), PLA Information Engineering University (CN), University of California, San Francisco (US), University of Cambridge (GB), Sussex County Community College (US), University of Oxford (GB), MIND Research Institute (US), Intelligent Systems Research (United States) (US), Multidisciplinary Association for Psychedelic Studies (US), Language Science (South Korea) (KR), 4D (United Kingdom) (GB), Institute of Information Engineering (CN), University College London (GB), Imperial College London (GB)
Openalex Percentile: Top 1%
Neural dynamics and brain function
14.31
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