Fundamental Interaction Niches: Towards a Functional Understanding of Ecological Networks' Resilience

Global change will create new species interactions and alter or eliminate existing ones, a process known as interaction rewiring. This rewiring can significantly affect how ecosystems function. To better predict the future structure of ecological networks, assessing their ability to adapt to changes is crucial. Here, we introduce two concepts: 'rewiring capacity' of a single species (the multidimensional trait space of all its potential interaction partners within a region) and 'rewiring potential' of a local community (the total trait space covered by interaction partners of the species at the target trophic level locally). To quantify the rewiring capacity and potential, we apply existing methods for determining species' functional interaction niches in a novel way to assess species' and communities' ability to form new interactions and the functional resilience of interaction networks to global change. To illustrate the applicability of these concepts, we quantified the rewiring capacity and potential of interactions between 1002 flowering plant species and 318 hummingbird species across the Americas. The rewiring capacity and potential metrics offer a new way to understand and quantify network resilience, allowing us to map how ecological networks respond to global change.

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Publication Details

Journal
Ecology Letters
Published
2025-05-30
DOI
https://doi.org/10.1111/ele.70146
Citations
6
Primary Topic
Plant and animal studies
Type
article
Field-Weighted Citation Impact
18.16

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article

Fundamental Interaction Niches: Towards a Functional Understanding of Ecological Networks' Resilience

Emma‐Liina Marjakangas, Alejandro Ordóñez, Bo Dalsgaard
6 citations
Ecology Letters
Plant and animal studies
18.16
article

Fundamental Interaction Niches: Towards a Functional Understanding of Ecological Networks' Resilience

Emma‐Liina Marjakangas, Alejandro Ordóñez, Bo Dalsgaard
article en
6 citations

Abstract

Global change will create new species interactions and alter or eliminate existing ones, a process known as interaction rewiring. This rewiring can significantly affect how ecosystems function. To better predict the future structure of ecological networks, assessing their ability to adapt to changes is crucial. Here, we introduce two concepts: 'rewiring capacity' of a single species (the multidimensional trait space of all its potential interaction partners within a region) and 'rewiring potential' of a local community (the total trait space covered by interaction partners of the species at the target trophic level locally). To quantify the rewiring capacity and potential, we apply existing methods for determining species' functional interaction niches in a novel way to assess species' and communities' ability to form new interactions and the functional resilience of interaction networks to global change. To illustrate the applicability of these concepts, we quantified the rewiring capacity and potential of interactions between 1002 flowering plant species and 318 hummingbird species across the Americas. The rewiring capacity and potential metrics offer a new way to understand and quantify network resilience, allowing us to map how ecological networks respond to global change.

Ecology LettersVol. 28(6)
University of Copenhagen (DK), Aarhus University (DK)
European Commission, National Research Foundation, Danmarks Grundforskningsfond, Emil Aaltosen Säätiö, H2020 Marie Skłodowska-Curie Actions, HORIZON EUROPE Marie Sklodowska-Curie Actions
Life in Land
Openalex Percentile: Top 1%
Plant and animal studies
18.16
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