TY - JOUR
T1 - Benthic animal-borne sensors and citizen science combine to validate ocean modelling
AU - Lavender, Edward
AU - Aleynik, Dmitry
AU - Dodd, Jane
AU - Illian, Janine
AU - James, Mark
AU - Smout, Sophie
AU - Thorburn, James A.
N1 - Funding: PhD Studentship at the University of St Andrews, jointly funded by NatureScot via the Marine Alliance for Science and Technology for Scotland (MASTS), and the Centre for Research into Ecological and Environmental Modelling. Data were collected as part of research funded by NatureScot (project 015960) and Marine Scotland (projects SP004 and SP02B0) via the Movement Ecology of Flapper Skate project. MASTS and Shark Guardian also provided some funding to this project. These data were made available from previous studies for this work and we have acknowledged this in the manuscript. The manuscript uses a model (WeStCOMS) whose development and expansion was supported by the EU's INTERREG VA and AA Programmes, managed by the Special EU Programmes Body via ‘Collaborative Oceanography and Monitoring for Protected Areas and Species’ (COMPASS) and ‘Predicting Risk and Impact of Harmful Events on the Aquaculture Sector’ (PRIMROSE) projects, as well as two UKRI grants: ‘Evaluating the Environmental Conditions Required for the Development of Offshore Aquaculture’ (OFF-AQUA, BB/S004246/1)’ and ‘Combining Autonomous observations and Models for Predicting and Understanding Shelf seas‘ (CAMPUS, NE/R00675X/1).
PY - 2022/10/5
Y1 - 2022/10/5
N2 - Developments in animal electronic tagging and tracking have transformed
the field of movement ecology, but interest is also growing in the
contributions of tagged animals to oceanography. Animal-borne sensors
can address data gaps, improve ocean model skill and support model
validation, but previous studies in this area have focused almost
exclusively on satellite-telemetered seabirds and seals. Here, for the
first time, we develop the use of benthic species as animal
oceanographers by combining archival (depth and temperature) data from
animal-borne tags, passive acoustic telemetry and citizen-science
mark-recapture records from 2016–17 for the Critically Endangered
flapper skate (Dipturus intermedius) in Scotland. By comparing
temperature observations to predictions from the West Scotland Coastal
Ocean Modelling System, we quantify model skill and empirically validate
an independent model update. The results from bottom-temperature and
temperature-depth profile validation (5,324 observations) fill a key
data gap in Scotland. For predictions in 2016, we identified a
consistent warm bias (mean = 0.53 °C) but a subsequent model update
reduced bias by an estimated 109% and improved model skill. This study
uniquely demonstrates the use of benthic animal-borne sensors and
citizen-science data for ocean model validation, broadening the range of
animal oceanographers in aquatic environments.
AB - Developments in animal electronic tagging and tracking have transformed
the field of movement ecology, but interest is also growing in the
contributions of tagged animals to oceanography. Animal-borne sensors
can address data gaps, improve ocean model skill and support model
validation, but previous studies in this area have focused almost
exclusively on satellite-telemetered seabirds and seals. Here, for the
first time, we develop the use of benthic species as animal
oceanographers by combining archival (depth and temperature) data from
animal-borne tags, passive acoustic telemetry and citizen-science
mark-recapture records from 2016–17 for the Critically Endangered
flapper skate (Dipturus intermedius) in Scotland. By comparing
temperature observations to predictions from the West Scotland Coastal
Ocean Modelling System, we quantify model skill and empirically validate
an independent model update. The results from bottom-temperature and
temperature-depth profile validation (5,324 observations) fill a key
data gap in Scotland. For predictions in 2016, we identified a
consistent warm bias (mean = 0.53 °C) but a subsequent model update
reduced bias by an estimated 109% and improved model skill. This study
uniquely demonstrates the use of benthic animal-borne sensors and
citizen-science data for ocean model validation, broadening the range of
animal oceanographers in aquatic environments.
UR - https://www.scopus.com/pages/publications/85139278217
U2 - 10.1038/s41598-022-20254-z
DO - 10.1038/s41598-022-20254-z
M3 - Article
SN - 2045-2322
VL - 12
JO - Scientific Reports
JF - Scientific Reports
M1 - 16613
ER -