Combining multiple visual surveys to model the habitat of deep‐diving cetaceans at the basin scale

Aim Deep‐diving cetaceans are oceanic species exposed to multiple anthropogenic pressures including high intensity underwater noise, and knowledge of their distribution is crucial to manage their conservation. Due to intrinsic low densities, wide distribution ranges and limited presence at the sea s...

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Veröffentlicht in:Global ecology and biogeography 2019-03, Vol.28 (3), p.300-314
Hauptverfasser: Virgili, Auriane, Authier, Matthieu, Boisseau, Oliver, Cañadas, Ana, Claridge, Diane, Cole, Tim, Corkeron, Peter, Dorémus, Ghislain, David, Léa, Di‐Méglio, Nathalie, Dunn, Charlotte, Dunn, Tim E., García‐Barón, Isabel, Laran, Sophie, Lauriano, Giancarlo, Lewis, Mark, Louzao, Maite, Mannocci, Laura, Martínez‐Cedeira, José, Palka, Debra, Panigada, Simone, Pettex, Emeline, Roberts, Jason J., Ruiz, Leire, Saavedra, Camilo, Santos, M. Begoña, Van Canneyt, Olivier, Vázquez Bonales, José Antonio, Monestiez, Pascal, Ridoux, Vincent, Keith, Sally
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container_issue 3
container_start_page 300
container_title Global ecology and biogeography
container_volume 28
creator Virgili, Auriane
Authier, Matthieu
Boisseau, Oliver
Cañadas, Ana
Claridge, Diane
Cole, Tim
Corkeron, Peter
Dorémus, Ghislain
David, Léa
Di‐Méglio, Nathalie
Dunn, Charlotte
Dunn, Tim E.
García‐Barón, Isabel
Laran, Sophie
Lauriano, Giancarlo
Lewis, Mark
Louzao, Maite
Mannocci, Laura
Martínez‐Cedeira, José
Palka, Debra
Panigada, Simone
Pettex, Emeline
Roberts, Jason J.
Ruiz, Leire
Saavedra, Camilo
Santos, M. Begoña
Van Canneyt, Olivier
Vázquez Bonales, José Antonio
Monestiez, Pascal
Ridoux, Vincent
Keith, Sally
description Aim Deep‐diving cetaceans are oceanic species exposed to multiple anthropogenic pressures including high intensity underwater noise, and knowledge of their distribution is crucial to manage their conservation. Due to intrinsic low densities, wide distribution ranges and limited presence at the sea surface, these species are rarely sighted. Pooling data from multiple visual surveys sharing a common line‐transect methodology can increase sightings but requires accounting for heterogeneity in protocols and platforms. Location North Atlantic Ocean and Mediterranean Sea. Time period 1998 to 2015. Major taxa Ziphiidae; Physeteriidae; Kogiidae. Methods About 1,240,000 km of pooled effort provided 630 sightings of ziphiids, 836 of physeteriids and 106 of kogiids. For each taxon, we built a hierarchical model to estimate the effective strip width depending on observation conditions and survey types. We then modelled relative densities in a generalized additive modelling framework. Geographical predictions were limited to interpolations identified with a gap analysis of environmental space coverage. Results Deeper areas of the North Atlantic gyre were mostly environmental extrapolation in the predictions, thereby highlighting gaps in sampling across the different surveys. For the three species groups, the highest relative densities were predicted along continental slopes, particularly in the western North Atlantic Ocean where the Gulf Stream creates dynamic frontal zones and eddies. Main conclusions Pooling a large number of surveys provided the first basin‐wide models of distribution for deep‐diving cetaceans, including several data‐deficient taxa, across the North Atlantic Ocean and the Mediterranean Sea. These models can help the conservation of elusive and poorly known marine megafauna.
doi_str_mv 10.1111/geb.12850
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Begoña ; Van Canneyt, Olivier ; Vázquez Bonales, José Antonio ; Monestiez, Pascal ; Ridoux, Vincent ; Keith, Sally</creator><creatorcontrib>Virgili, Auriane ; Authier, Matthieu ; Boisseau, Oliver ; Cañadas, Ana ; Claridge, Diane ; Cole, Tim ; Corkeron, Peter ; Dorémus, Ghislain ; David, Léa ; Di‐Méglio, Nathalie ; Dunn, Charlotte ; Dunn, Tim E. ; García‐Barón, Isabel ; Laran, Sophie ; Lauriano, Giancarlo ; Lewis, Mark ; Louzao, Maite ; Mannocci, Laura ; Martínez‐Cedeira, José ; Palka, Debra ; Panigada, Simone ; Pettex, Emeline ; Roberts, Jason J. ; Ruiz, Leire ; Saavedra, Camilo ; Santos, M. Begoña ; Van Canneyt, Olivier ; Vázquez Bonales, José Antonio ; Monestiez, Pascal ; Ridoux, Vincent ; Keith, Sally</creatorcontrib><description>Aim Deep‐diving cetaceans are oceanic species exposed to multiple anthropogenic pressures including high intensity underwater noise, and knowledge of their distribution is crucial to manage their conservation. Due to intrinsic low densities, wide distribution ranges and limited presence at the sea surface, these species are rarely sighted. Pooling data from multiple visual surveys sharing a common line‐transect methodology can increase sightings but requires accounting for heterogeneity in protocols and platforms. Location North Atlantic Ocean and Mediterranean Sea. Time period 1998 to 2015. Major taxa Ziphiidae; Physeteriidae; Kogiidae. Methods About 1,240,000 km of pooled effort provided 630 sightings of ziphiids, 836 of physeteriids and 106 of kogiids. For each taxon, we built a hierarchical model to estimate the effective strip width depending on observation conditions and survey types. We then modelled relative densities in a generalized additive modelling framework. Geographical predictions were limited to interpolations identified with a gap analysis of environmental space coverage. Results Deeper areas of the North Atlantic gyre were mostly environmental extrapolation in the predictions, thereby highlighting gaps in sampling across the different surveys. For the three species groups, the highest relative densities were predicted along continental slopes, particularly in the western North Atlantic Ocean where the Gulf Stream creates dynamic frontal zones and eddies. Main conclusions Pooling a large number of surveys provided the first basin‐wide models of distribution for deep‐diving cetaceans, including several data‐deficient taxa, across the North Atlantic Ocean and the Mediterranean Sea. 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Begoña</creatorcontrib><creatorcontrib>Van Canneyt, Olivier</creatorcontrib><creatorcontrib>Vázquez Bonales, José Antonio</creatorcontrib><creatorcontrib>Monestiez, Pascal</creatorcontrib><creatorcontrib>Ridoux, Vincent</creatorcontrib><creatorcontrib>Keith, Sally</creatorcontrib><title>Combining multiple visual surveys to model the habitat of deep‐diving cetaceans at the basin scale</title><title>Global ecology and biogeography</title><description>Aim Deep‐diving cetaceans are oceanic species exposed to multiple anthropogenic pressures including high intensity underwater noise, and knowledge of their distribution is crucial to manage their conservation. Due to intrinsic low densities, wide distribution ranges and limited presence at the sea surface, these species are rarely sighted. Pooling data from multiple visual surveys sharing a common line‐transect methodology can increase sightings but requires accounting for heterogeneity in protocols and platforms. Location North Atlantic Ocean and Mediterranean Sea. Time period 1998 to 2015. Major taxa Ziphiidae; Physeteriidae; Kogiidae. Methods About 1,240,000 km of pooled effort provided 630 sightings of ziphiids, 836 of physeteriids and 106 of kogiids. For each taxon, we built a hierarchical model to estimate the effective strip width depending on observation conditions and survey types. We then modelled relative densities in a generalized additive modelling framework. Geographical predictions were limited to interpolations identified with a gap analysis of environmental space coverage. Results Deeper areas of the North Atlantic gyre were mostly environmental extrapolation in the predictions, thereby highlighting gaps in sampling across the different surveys. For the three species groups, the highest relative densities were predicted along continental slopes, particularly in the western North Atlantic Ocean where the Gulf Stream creates dynamic frontal zones and eddies. Main conclusions Pooling a large number of surveys provided the first basin‐wide models of distribution for deep‐diving cetaceans, including several data‐deficient taxa, across the North Atlantic Ocean and the Mediterranean Sea. 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Begoña</au><au>Van Canneyt, Olivier</au><au>Vázquez Bonales, José Antonio</au><au>Monestiez, Pascal</au><au>Ridoux, Vincent</au><au>Keith, Sally</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Combining multiple visual surveys to model the habitat of deep‐diving cetaceans at the basin scale</atitle><jtitle>Global ecology and biogeography</jtitle><date>2019-03</date><risdate>2019</risdate><volume>28</volume><issue>3</issue><spage>300</spage><epage>314</epage><pages>300-314</pages><issn>1466-822X</issn><eissn>1466-8238</eissn><eissn>1466-822X</eissn><abstract>Aim Deep‐diving cetaceans are oceanic species exposed to multiple anthropogenic pressures including high intensity underwater noise, and knowledge of their distribution is crucial to manage their conservation. Due to intrinsic low densities, wide distribution ranges and limited presence at the sea surface, these species are rarely sighted. Pooling data from multiple visual surveys sharing a common line‐transect methodology can increase sightings but requires accounting for heterogeneity in protocols and platforms. Location North Atlantic Ocean and Mediterranean Sea. Time period 1998 to 2015. Major taxa Ziphiidae; Physeteriidae; Kogiidae. Methods About 1,240,000 km of pooled effort provided 630 sightings of ziphiids, 836 of physeteriids and 106 of kogiids. For each taxon, we built a hierarchical model to estimate the effective strip width depending on observation conditions and survey types. We then modelled relative densities in a generalized additive modelling framework. Geographical predictions were limited to interpolations identified with a gap analysis of environmental space coverage. Results Deeper areas of the North Atlantic gyre were mostly environmental extrapolation in the predictions, thereby highlighting gaps in sampling across the different surveys. For the three species groups, the highest relative densities were predicted along continental slopes, particularly in the western North Atlantic Ocean where the Gulf Stream creates dynamic frontal zones and eddies. Main conclusions Pooling a large number of surveys provided the first basin‐wide models of distribution for deep‐diving cetaceans, including several data‐deficient taxa, across the North Atlantic Ocean and the Mediterranean Sea. 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ispartof Global ecology and biogeography, 2019-03, Vol.28 (3), p.300-314
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source Wiley-Blackwell Journals
subjects Anthropogenic factors
beaked whales
Cetacea
Conservation
data‐assembling
deep‐diving cetaceans
Diving
Eddies
Environmental Sciences
Gap analysis
Gulf Stream
habitat modelling
Heterogeneity
kogiids
Megafauna
Noise intensity
Ocean models
Polls & surveys
Predictions
Species
sperm whales
Taxa
Underwater
title Combining multiple visual surveys to model the habitat of deep‐diving cetaceans at the basin scale
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