Ulrich Brose, Myriam R. Hirt, Remo Ryser, Benjamin Rosenbaum, Emilio Berti, Benoit Gauzens, Andrew M. Hein, Samraat Pawar, Kenneth Schmidt, Kate Wootton, Sonia Kéfi
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Here we argue that this exchange of information between species constitutes an information network of nature—a crucial but largely neglected aspect of community organization. We propose to integrate information with matter flow interactions in multilayer networks. This integration reveals a novel classification of information links based on how the senders and receivers of information are embedded in food web motifs. We show that synthesizing information and matter flow interactions in multilayer networks can lead to shorter pathways connecting species and a denser aggregation of species in fewer modules. Ultimately, this tighter interconnectedness of species increases the risk of perturbation spread in natural communities, which undermines their stability. Understanding the information network of nature is thus crucial for predicting community dynamics in the era of global change. Ecological network research has typically focused on flows of matter and energy, but species also exchange information signals and cues that influence behaviour and movement. This Perspective argues that the information network of nature is a crucial aspect of community organization.","PeriodicalId":18835,"journal":{"name":"Nature ecology & evolution","volume":"9 4","pages":"547-558"},"PeriodicalIF":13.9000,"publicationDate":"2025-04-04","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Embedding information flows within ecological networks\",\"authors\":\"Ulrich Brose, Myriam R. Hirt, Remo Ryser, Benjamin Rosenbaum, Emilio Berti, Benoit Gauzens, Andrew M. Hein, Samraat Pawar, Kenneth Schmidt, Kate Wootton, Sonia Kéfi\",\"doi\":\"10.1038/s41559-025-02670-2\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Natural communities form networks of species linked by interactions. Understanding the structure and dynamics of these ecological networks is pivotal to predicting species extinction risks, community stability and ecosystem functioning under global change. Traditionally, ecological network research has focused on interactions involving the flow of matter and energy, such as feeding or pollination. In nature, however, species also interact by intentionally or unintentionally exchanging information signals and cues that influence their behaviour and movement. Here we argue that this exchange of information between species constitutes an information network of nature—a crucial but largely neglected aspect of community organization. We propose to integrate information with matter flow interactions in multilayer networks. This integration reveals a novel classification of information links based on how the senders and receivers of information are embedded in food web motifs. We show that synthesizing information and matter flow interactions in multilayer networks can lead to shorter pathways connecting species and a denser aggregation of species in fewer modules. Ultimately, this tighter interconnectedness of species increases the risk of perturbation spread in natural communities, which undermines their stability. Understanding the information network of nature is thus crucial for predicting community dynamics in the era of global change. Ecological network research has typically focused on flows of matter and energy, but species also exchange information signals and cues that influence behaviour and movement. 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Embedding information flows within ecological networks
Natural communities form networks of species linked by interactions. Understanding the structure and dynamics of these ecological networks is pivotal to predicting species extinction risks, community stability and ecosystem functioning under global change. Traditionally, ecological network research has focused on interactions involving the flow of matter and energy, such as feeding or pollination. In nature, however, species also interact by intentionally or unintentionally exchanging information signals and cues that influence their behaviour and movement. Here we argue that this exchange of information between species constitutes an information network of nature—a crucial but largely neglected aspect of community organization. We propose to integrate information with matter flow interactions in multilayer networks. This integration reveals a novel classification of information links based on how the senders and receivers of information are embedded in food web motifs. We show that synthesizing information and matter flow interactions in multilayer networks can lead to shorter pathways connecting species and a denser aggregation of species in fewer modules. Ultimately, this tighter interconnectedness of species increases the risk of perturbation spread in natural communities, which undermines their stability. Understanding the information network of nature is thus crucial for predicting community dynamics in the era of global change. Ecological network research has typically focused on flows of matter and energy, but species also exchange information signals and cues that influence behaviour and movement. This Perspective argues that the information network of nature is a crucial aspect of community organization.
Nature ecology & evolutionAgricultural and Biological Sciences-Ecology, Evolution, Behavior and Systematics
CiteScore
22.20
自引率
2.40%
发文量
282
期刊介绍:
Nature Ecology & Evolution is interested in the full spectrum of ecological and evolutionary biology, encompassing approaches at the molecular, organismal, population, community and ecosystem levels, as well as relevant parts of the social sciences. Nature Ecology & Evolution provides a place where all researchers and policymakers interested in all aspects of life's diversity can come together to learn about the most accomplished and significant advances in the field and to discuss topical issues. An online-only monthly journal, our broad scope ensures that the research published reaches the widest possible audience of scientists.