River flow intermittence influence biodiversity–stability relationships across spatial scales: Implications for an uncertain future
Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α‐diversity) but enhances variation in species composition among sites (i.e., β‐diversity), with potential consequences on ecosystem stability. Indeed, the mult...
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| Published in: | Global change biology Vol. 30; no. 8; pp. e17457 - n/a |
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| Main Authors: | , , , , , , , |
| Format: | Journal Article |
| Language: | English |
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England
Blackwell Publishing Ltd
01.08.2024
Wiley |
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| ISSN: | 1354-1013, 1365-2486, 1365-2486 |
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| Abstract | Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α‐diversity) but enhances variation in species composition among sites (i.e., β‐diversity), with potential consequences on ecosystem stability. Indeed, the multiscale theory of stability proposes that regional stability can be attained not only by local processes but also by spatial asynchrony among sites. However, it is still unknown whether and how scale‐dependent changes in biodiversity associated with river flow intermittence influence stability across spatial scales. To elucidate this, we here focus on multiple metacommunities of French rivers experiencing contrasting levels of flow intermittence. We clearly show that the relative contribution of spatial asynchrony to regional stability was higher for metacommunities of intermittent than perennial rivers. Surprisingly, spatial asynchrony was mainly linked to asynchronous population dynamics among sites, but not to β‐diversity. This finding was robust for both truly aquatic macroinvertebrates and for taxa that disperse aerially during their adult stages, implying the need to conserve multiple sites across the landscape to attain regional stability in intermittent rivers. By contrast, metacommunities of truly aquatic macroinvertebrates inhabiting perennial rivers were mainly stabilized by local processes. Our study provides novel evidence that metacommunities of perennial and intermittent rivers are stabilized by contrasting processes operating at different spatial scales. We demonstrate that flow intermittence enhances spatial asynchrony among sites, thus resulting in a regional stabilizing effect on intermittent river networks. Considering that climate change is increasing the proportion of intermittent rivers worldwide, our results suggest that managers need to focus on the spatial dynamics of metacommunities more than on local‐scale processes to monitor, restore, and conserve freshwater biodiversity.
Climate change is increasing the proportion of river networks experiencing flow intermittence, which may impact biodiversity at local and regional scales. Here, we demonstrate that scale‐dependent biodiversity responses to intermittence influence the spatial scaling of stability in river metacommunities. Whereas the regional stability of perennial rivers is mainly achieved through local stability, spatial asynchrony is the main stabilizing component of intermittent river networks. As more rivers become intermittent and disconnected due to global change, managers will need to focus on the spatial dynamics of metacommunities more than on local‐scale processes to maintain the regional stability of ecosystem services. |
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| AbstractList | Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α-diversity) but enhances variation in species composition among sites (i.e., β-diversity), with potential consequences on ecosystem stability. Indeed, the multiscale theory of stability proposes that regional stability can be attained not only by local processes but also by spatial asynchrony among sites. However, it is still unknown whether and how scale-dependent changes in biodiversity associated with river flow intermittence influence stability across spatial scales. To elucidate this, we here focus on multiple metacommunities of French rivers experiencing contrasting levels of flow intermittence. We clearly show that the relative contribution of spatial asynchrony to regional stability was higher for metacommunities of intermittent than perennial rivers. Surprisingly, spatial asynchrony was mainly linked to asynchronous population dynamics among sites, but not to β-diversity. This finding was robust for both truly aquatic macroinvertebrates and for taxa that disperse aerially during their adult stages, implying the need to conserve multiple sites across the landscape to attain regional stability in intermittent rivers. By contrast, metacommunities of truly aquatic macroinvertebrates inhabiting perennial rivers were mainly stabilized by local processes. Our study provides novel evidence that metacommunities of perennial and intermittent rivers are stabilized by contrasting processes operating at different spatial scales. We demonstrate that flow intermittence enhances spatial asynchrony among sites, thus resulting in a regional stabilizing effect on intermittent river networks. Considering that climate change is increasing the proportion of intermittent rivers worldwide, our results suggest that managers need to focus on the spatial dynamics of metacommunities more than on local-scale processes to monitor, restore, and conserve freshwater biodiversity.Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α-diversity) but enhances variation in species composition among sites (i.e., β-diversity), with potential consequences on ecosystem stability. Indeed, the multiscale theory of stability proposes that regional stability can be attained not only by local processes but also by spatial asynchrony among sites. However, it is still unknown whether and how scale-dependent changes in biodiversity associated with river flow intermittence influence stability across spatial scales. To elucidate this, we here focus on multiple metacommunities of French rivers experiencing contrasting levels of flow intermittence. We clearly show that the relative contribution of spatial asynchrony to regional stability was higher for metacommunities of intermittent than perennial rivers. Surprisingly, spatial asynchrony was mainly linked to asynchronous population dynamics among sites, but not to β-diversity. This finding was robust for both truly aquatic macroinvertebrates and for taxa that disperse aerially during their adult stages, implying the need to conserve multiple sites across the landscape to attain regional stability in intermittent rivers. By contrast, metacommunities of truly aquatic macroinvertebrates inhabiting perennial rivers were mainly stabilized by local processes. Our study provides novel evidence that metacommunities of perennial and intermittent rivers are stabilized by contrasting processes operating at different spatial scales. We demonstrate that flow intermittence enhances spatial asynchrony among sites, thus resulting in a regional stabilizing effect on intermittent river networks. Considering that climate change is increasing the proportion of intermittent rivers worldwide, our results suggest that managers need to focus on the spatial dynamics of metacommunities more than on local-scale processes to monitor, restore, and conserve freshwater biodiversity. Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α‐diversity) but enhances variation in species composition among sites (i.e., β‐diversity), with potential consequences on ecosystem stability. Indeed, the multiscale theory of stability proposes that regional stability can be attained not only by local processes but also by spatial asynchrony among sites. However, it is still unknown whether and how scale‐dependent changes in biodiversity associated with river flow intermittence influence stability across spatial scales. To elucidate this, we here focus on multiple metacommunities of French rivers experiencing contrasting levels of flow intermittence. We clearly show that the relative contribution of spatial asynchrony to regional stability was higher for metacommunities of intermittent than perennial rivers. Surprisingly, spatial asynchrony was mainly linked to asynchronous population dynamics among sites, but not to β‐diversity. This finding was robust for both truly aquatic macroinvertebrates and for taxa that disperse aerially during their adult stages, implying the need to conserve multiple sites across the landscape to attain regional stability in intermittent rivers. By contrast, metacommunities of truly aquatic macroinvertebrates inhabiting perennial rivers were mainly stabilized by local processes. Our study provides novel evidence that metacommunities of perennial and intermittent rivers are stabilized by contrasting processes operating at different spatial scales. We demonstrate that flow intermittence enhances spatial asynchrony among sites, thus resulting in a regional stabilizing effect on intermittent river networks. Considering that climate change is increasing the proportion of intermittent rivers worldwide, our results suggest that managers need to focus on the spatial dynamics of metacommunities more than on local‐scale processes to monitor, restore, and conserve freshwater biodiversity. Climate change is increasing the proportion of river networks experiencing flow intermittence, which may impact biodiversity at local and regional scales. Here, we demonstrate that scale‐dependent biodiversity responses to intermittence influence the spatial scaling of stability in river metacommunities. Whereas the regional stability of perennial rivers is mainly achieved through local stability, spatial asynchrony is the main stabilizing component of intermittent river networks. As more rivers become intermittent and disconnected due to global change, managers will need to focus on the spatial dynamics of metacommunities more than on local‐scale processes to maintain the regional stability of ecosystem services. Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α‐diversity) but enhances variation in species composition among sites (i.e., β‐diversity), with potential consequences on ecosystem stability. Indeed, the multiscale theory of stability proposes that regional stability can be attained not only by local processes but also by spatial asynchrony among sites. However, it is still unknown whether and how scale‐dependent changes in biodiversity associated with river flow intermittence influence stability across spatial scales. To elucidate this, we here focus on multiple metacommunities of French rivers experiencing contrasting levels of flow intermittence. We clearly show that the relative contribution of spatial asynchrony to regional stability was higher for metacommunities of intermittent than perennial rivers. Surprisingly, spatial asynchrony was mainly linked to asynchronous population dynamics among sites, but not to β‐diversity. This finding was robust for both truly aquatic macroinvertebrates and for taxa that disperse aerially during their adult stages, implying the need to conserve multiple sites across the landscape to attain regional stability in intermittent rivers. By contrast, metacommunities of truly aquatic macroinvertebrates inhabiting perennial rivers were mainly stabilized by local processes. Our study provides novel evidence that metacommunities of perennial and intermittent rivers are stabilized by contrasting processes operating at different spatial scales. We demonstrate that flow intermittence enhances spatial asynchrony among sites, thus resulting in a regional stabilizing effect on intermittent river networks. Considering that climate change is increasing the proportion of intermittent rivers worldwide, our results suggest that managers need to focus on the spatial dynamics of metacommunities more than on local‐scale processes to monitor, restore, and conserve freshwater biodiversity. Abstract Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α‐diversity) but enhances variation in species composition among sites (i.e., β‐diversity), with potential consequences on ecosystem stability. Indeed, the multiscale theory of stability proposes that regional stability can be attained not only by local processes but also by spatial asynchrony among sites. However, it is still unknown whether and how scale‐dependent changes in biodiversity associated with river flow intermittence influence stability across spatial scales. To elucidate this, we here focus on multiple metacommunities of French rivers experiencing contrasting levels of flow intermittence. We clearly show that the relative contribution of spatial asynchrony to regional stability was higher for metacommunities of intermittent than perennial rivers. Surprisingly, spatial asynchrony was mainly linked to asynchronous population dynamics among sites, but not to β‐diversity. This finding was robust for both truly aquatic macroinvertebrates and for taxa that disperse aerially during their adult stages, implying the need to conserve multiple sites across the landscape to attain regional stability in intermittent rivers. By contrast, metacommunities of truly aquatic macroinvertebrates inhabiting perennial rivers were mainly stabilized by local processes. Our study provides novel evidence that metacommunities of perennial and intermittent rivers are stabilized by contrasting processes operating at different spatial scales. We demonstrate that flow intermittence enhances spatial asynchrony among sites, thus resulting in a regional stabilizing effect on intermittent river networks. Considering that climate change is increasing the proportion of intermittent rivers worldwide, our results suggest that managers need to focus on the spatial dynamics of metacommunities more than on local‐scale processes to monitor, restore, and conserve freshwater biodiversity. |
| Author | Crabot, Julie Cavalcanti, Victor R. Piffady, Jeremy Datry, Thibault Cruz, Leonardo Floury, Mathieu Valette, Laurent Gianuca, Andros T. |
| Author_xml | – sequence: 1 givenname: Andros T. orcidid: 0000-0001-9639-3846 surname: Gianuca fullname: Gianuca, Andros T. email: andros.gianuca@ufrn.br organization: INRAE, UR Riverly, Centre de Lyon‐Villeurbanne – sequence: 2 givenname: Victor R. orcidid: 0009-0004-5782-004X surname: Cavalcanti fullname: Cavalcanti, Victor R. organization: Federal University of Rio Grande do Norte – sequence: 3 givenname: Leonardo orcidid: 0000-0003-4472-9664 surname: Cruz fullname: Cruz, Leonardo organization: Federal University of Rio Grande do Norte – sequence: 4 givenname: Mathieu surname: Floury fullname: Floury, Mathieu organization: University of Paris‐Saclay, INRAE, HYCAR – sequence: 5 givenname: Julie orcidid: 0000-0002-7864-993X surname: Crabot fullname: Crabot, Julie organization: Université Clermont Auvergne, CNRS, GEOLAB – sequence: 6 givenname: Laurent surname: Valette fullname: Valette, Laurent organization: INRAE, UR Riverly, Centre de Lyon‐Villeurbanne – sequence: 7 givenname: Jeremy surname: Piffady fullname: Piffady, Jeremy organization: INRAE, UR Riverly, Centre de Lyon‐Villeurbanne – sequence: 8 givenname: Thibault orcidid: 0000-0003-1390-6736 surname: Datry fullname: Datry, Thibault organization: INRAE, UR Riverly, Centre de Lyon‐Villeurbanne |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/39162046$$D View this record in MEDLINE/PubMed https://hal.inrae.fr/hal-04689894$$DView record in HAL |
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| CitedBy_id | crossref_primary_10_1007_s10452_025_10192_z crossref_primary_10_1186_s12870_025_06664_x crossref_primary_10_1016_j_ecolmodel_2025_111136 crossref_primary_10_1111_gcb_70068 |
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| Keywords | metacommunity stability diversity–stability relationships across spatial scales land use intermittent rivers urbanisation macro invertebrates diversity-stability relationships across spatial scales |
| Language | English |
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| Snippet | Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α‐diversity) but... Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e., α-diversity) but... Abstract Climate change is increasing the proportion of river networks experiencing flow intermittence, which in turn reduces local diversity (i.e.,... |
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| StartPage | e17457 |
| SubjectTerms | adults Animals aquatic invertebrates Biodiversity Biodiversity and Ecology Climate Change Community composition diversity–stability relationships across spatial scales ecological balance Ecosystem stability Environmental Sciences Flow stability France Freshwater Inland water environment Intermittent rivers Invertebrates - physiology land use Landscape preservation landscapes macro invertebrates Macroinvertebrates metacommunity stability Perennial streams Population Dynamics River flow River networks Rivers Species composition species diversity Stability Stream flow Uncertainty urbanisation Water Movements Zoobenthos |
| Title | River flow intermittence influence biodiversity–stability relationships across spatial scales: Implications for an uncertain future |
| URI | https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fgcb.17457 https://www.ncbi.nlm.nih.gov/pubmed/39162046 https://www.proquest.com/docview/3098045302 https://www.proquest.com/docview/3094823976 https://www.proquest.com/docview/3153741634 https://hal.inrae.fr/hal-04689894 |
| Volume | 30 |
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