A single changing hypernetwork to represent (social-)ecological dynamics

To understand and manage (social-)ecological systems, we need an intuitive and rigorous way to represent them. Recent ecological studies propose to represent interaction networks into modular graphs, multiplexes and higher-order interactions. Along these lines, we argue here that non-dyadic (non-pairwise) interactions are common in ecology and environmental sciences, necessitating fresh concepts and tools for handling them. In addition, such interaction networks often change sharply, due to appearing and disappearing species and components. We illustrate in a simple example that any ecosystem can be represented by a single hypergraph, here called the ecosystem hypernetwork. Moreover, we highlight that any ecosystem hypernetwork exhibits a changing topology summarizing its long term dynamics (e.g., species extinction/invasion, pollutant or human arrival/migration). Qualitative and discrete-event models developed in computer science appear suitable for modeling hypergraph (topological) dynamics. Hypernetworks thus also provide a conceptual foundation for theoretical as well as more applied studies in ecology (at large), as they form the qualitative backbone of ever-changing ecosystems.

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Publication Details

Journal
Peer Community Journal
Published
2024-10-24
DOI
https://doi.org/10.24072/pcjournal.482
Citations
3
Primary Topic
Complex Network Analysis Techniques
Type
article
Field-Weighted Citation Impact
0.84

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article

A single changing hypernetwork to represent (social-)ecological dynamics

Maximilien Cosme, Franck Pommereau, Cédric Gaucherel, Camille Noûs
3 citations
Peer Community Journal
Complex Network Analysis Techniques
0.84
article

A single changing hypernetwork to represent (social-)ecological dynamics

Maximilien Cosme, Franck Pommereau, Cédric Gaucherel, Camille Noûs
article en
3 citations

Abstract

To understand and manage (social-)ecological systems, we need an intuitive and rigorous way to represent them. Recent ecological studies propose to represent interaction networks into modular graphs, multiplexes and higher-order interactions. Along these lines, we argue here that non-dyadic (non-pairwise) interactions are common in ecology and environmental sciences, necessitating fresh concepts and tools for handling them. In addition, such interaction networks often change sharply, due to appearing and disappearing species and components. We illustrate in a simple example that any ecosystem can be represented by a single hypergraph, here called the ecosystem hypernetwork. Moreover, we highlight that any ecosystem hypernetwork exhibits a changing topology summarizing its long term dynamics (e.g., species extinction/invasion, pollutant or human arrival/migration). Qualitative and discrete-event models developed in computer science appear suitable for modeling hypergraph (topological) dynamics. Hypernetworks thus also provide a conceptual foundation for theoretical as well as more applied studies in ecology (at large), as they form the qualitative backbone of ever-changing ecosystems.

Peer Community JournalVol. 4
Informatique, BioInformatique, Systèmes Complexes (FR), UMR Botanique et Modélisation de l’Architecture des Plantes et des végétations (FR)
Institut National de la Recherche Agronomique
Reduced inequalities
Openalex Percentile: Top 27%
Complex Network Analysis Techniques
0.84
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