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Identifying prey capture events of a free-ranging marine predator using bio-logger data and deep learning
by
Chimienti, Marianna
, Oosthuizen, W. Chris
, Lowther, Andrew D.
, Pistorius, Pierre A.
, Dufourq, Emmanuel
, Sutton, Grace J.
, Schoombie, Stefan
, Jeantet, Lorène
in
accelerometer
/ Accelerometers
/ Algorithms
/ animal behaviour classification
/ animal-borne video
/ Camcorders
/ chinstrap penguin
/ Deep learning
/ Estimates
/ Fisheries management
/ Foraging behavior
/ foraging ecology
/ Machine learning
/ Neural networks
/ Penguins
/ Predation
/ Sensors
2024
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Identifying prey capture events of a free-ranging marine predator using bio-logger data and deep learning
by
Chimienti, Marianna
, Oosthuizen, W. Chris
, Lowther, Andrew D.
, Pistorius, Pierre A.
, Dufourq, Emmanuel
, Sutton, Grace J.
, Schoombie, Stefan
, Jeantet, Lorène
in
accelerometer
/ Accelerometers
/ Algorithms
/ animal behaviour classification
/ animal-borne video
/ Camcorders
/ chinstrap penguin
/ Deep learning
/ Estimates
/ Fisheries management
/ Foraging behavior
/ foraging ecology
/ Machine learning
/ Neural networks
/ Penguins
/ Predation
/ Sensors
2024
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Do you wish to request the book?
Identifying prey capture events of a free-ranging marine predator using bio-logger data and deep learning
by
Chimienti, Marianna
, Oosthuizen, W. Chris
, Lowther, Andrew D.
, Pistorius, Pierre A.
, Dufourq, Emmanuel
, Sutton, Grace J.
, Schoombie, Stefan
, Jeantet, Lorène
in
accelerometer
/ Accelerometers
/ Algorithms
/ animal behaviour classification
/ animal-borne video
/ Camcorders
/ chinstrap penguin
/ Deep learning
/ Estimates
/ Fisheries management
/ Foraging behavior
/ foraging ecology
/ Machine learning
/ Neural networks
/ Penguins
/ Predation
/ Sensors
2024
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Identifying prey capture events of a free-ranging marine predator using bio-logger data and deep learning
Journal Article
Identifying prey capture events of a free-ranging marine predator using bio-logger data and deep learning
2024
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Overview
Marine predators are integral to the functioning of marine ecosystems, and their consumption requirements should be integrated into ecosystem-based management policies. However, estimating prey consumption in diving marine predators requires innovative methods as predator–prey interactions are rarely observable. We developed a novel method, validated by animal-borne video, that uses tri-axial acceleration and depth data to quantify prey capture rates in chinstrap penguins ( Pygoscelis antarctica ). These penguins are important consumers of Antarctic krill ( Euphausia superba ), a commercially harvested crustacean central to the Southern Ocean food web. We collected a large data set ( n = 41 individuals) comprising overlapping video, accelerometer and depth data from foraging penguins. Prey captures were manually identified in videos, and those observations were used in supervised training of two deep learning neural networks (convolutional neural network (CNN) and V-Net). Although the CNN and V-Net architectures and input data pipelines differed, both trained models were able to predict prey captures from new acceleration and depth data (linear regression slope of predictions against video-observed prey captures = 1.13; R 2 ≈ 0.86). Our results illustrate that deep learning algorithms offer a means to process the large quantities of data generated by contemporary bio-logging sensors to robustly estimate prey capture events in diving marine predators.
Publisher
The Royal Society Publishing,The Royal Society
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