Connecting the dots: Applying multispecies connectivity in marine park network planning

Marine ecosystems are highly dynamic, and their connectivity is affected by a complex range of biological, spatial, and oceanographic factors. Incorporating connectivity as a factor in the planning and management of marine protected areas (MPAs) is important yet challenging. Here, we implemented a novel integrative framework that uses intraspecific genetic and genomic data for multiple marine species to characterise connectivity across a recently established South Australian MPA network. We generated connectivity networks, estimated cross-species concordance of connectivity patterns, and tested the impact of key spatial and oceanographic factors on each species. Connectivity patterns varied markedly among species, but were most correlated among those with similar dispersal strategies. Ordination analyses revealed significant associations with both waterway distances and oceanographic advection models. Notably, waterway distances provided better predictive power in all-species combined analyses. We extended the practical relevance of our findings by employing spatial prioritisation with Marxan, using node values derived from both genetic and geographic connectivity networks. This allowed the identification of several priority areas for conservation, and substantiated the initial decision to employ spatial distance as a proxy for biological connectivity for the design of the South Australian marine park network. Our study establishes a baseline for connectivity monitoring in South Australian MPAs, and provides guidelines for adapting this framework to protected networks elsewhere in the world. • We incorporated connectivity as a factor in the planning and management of marine protected areas using intraspecific genetic and genomic data. • Connectivity networks, cross-species concordance, and key spatial and oceanographic factors were estimated for each species. • Ordination analyses revealed significant associations with both waterway distances and oceanographic advection models. • Spatial prioritisation with Marxan identified priority areas for conservation and spatial distance as a proxy for connectivity. • Our study provides guidelines for adapting this framework to other protected networks with intraspecies genetic data.

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Publication Details

Journal
Biological Conservation
Published
2024-08-23
DOI
https://doi.org/10.1016/j.biocon.2024.110759
Citations
3
Primary Topic
Marine and coastal plant biology
Type
article
Field-Weighted Citation Impact
1.44

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article

Connecting the dots: Applying multispecies connectivity in marine park network planning

Luciano B. Beheregaray, Eleanor A. L. Pratt, Andrea Barceló, Jonathan Sandoval‐Castillo et al.
3 citations
Biological Conservation
Marine and coastal plant biology
1.44
article

Connecting the dots: Applying multispecies connectivity in marine park network planning

Luciano B. Beheregaray, Eleanor A. L. Pratt, Andrea Barceló, Jonathan Sandoval‐Castillo, Peter R. Teske, Katie Gates, Andrea Bertram, Luciana M. Möller
article en
3 citations

Abstract

Marine ecosystems are highly dynamic, and their connectivity is affected by a complex range of biological, spatial, and oceanographic factors. Incorporating connectivity as a factor in the planning and management of marine protected areas (MPAs) is important yet challenging. Here, we implemented a novel integrative framework that uses intraspecific genetic and genomic data for multiple marine species to characterise connectivity across a recently established South Australian MPA network. We generated connectivity networks, estimated cross-species concordance of connectivity patterns, and tested the impact of key spatial and oceanographic factors on each species. Connectivity patterns varied markedly among species, but were most correlated among those with similar dispersal strategies. Ordination analyses revealed significant associations with both waterway distances and oceanographic advection models. Notably, waterway distances provided better predictive power in all-species combined analyses. We extended the practical relevance of our findings by employing spatial prioritisation with Marxan, using node values derived from both genetic and geographic connectivity networks. This allowed the identification of several priority areas for conservation, and substantiated the initial decision to employ spatial distance as a proxy for biological connectivity for the design of the South Australian marine park network. Our study establishes a baseline for connectivity monitoring in South Australian MPAs, and provides guidelines for adapting this framework to protected networks elsewhere in the world. • We incorporated connectivity as a factor in the planning and management of marine protected areas using intraspecific genetic and genomic data. • Connectivity networks, cross-species concordance, and key spatial and oceanographic factors were estimated for each species. • Ordination analyses revealed significant associations with both waterway distances and oceanographic advection models. • Spatial prioritisation with Marxan identified priority areas for conservation and spatial distance as a proxy for connectivity. • Our study provides guidelines for adapting this framework to other protected networks with intraspecies genetic data.

Biological ConservationVol. 298
Flinders University (AU), University of Johannesburg (ZA)
DEW Foundation, Department of Environment and Water, Australian Research Council
Life below water
Openalex Percentile: Top 20%
Marine and coastal plant biology
1.44
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