Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology.

Bioacoustic networks could vastly expand the coverage of wildlife monitoring to complement satellite observations of climate and vegetation. This approach would enable global-scale understanding of how climate change influences phenomena such as migratory timing of avian species. The enormous data s...

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Main Authors: Oliver, Ruth Y, Ellis, Daniel PW, Chmura, Helen E, Krause, Jesse S, Pérez, Jonathan H, Sweet, Shannan K, Gough, Laura, Wingfield, John C, Boelman, Natalie T
Format: Article in Journal/Newspaper
Language:unknown
Published: eScholarship, University of California 2018
Subjects:
Online Access:https://escholarship.org/uc/item/5q9460x7
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spelling ftcdlib:oai:escholarship.org:ark:/13030/qt5q9460x7 2023-05-15T14:50:57+02:00 Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology. Oliver, Ruth Y Ellis, Daniel PW Chmura, Helen E Krause, Jesse S Pérez, Jonathan H Sweet, Shannan K Gough, Laura Wingfield, John C Boelman, Natalie T eaaq1084 2018-06-01 application/pdf https://escholarship.org/uc/item/5q9460x7 unknown eScholarship, University of California qt5q9460x7 https://escholarship.org/uc/item/5q9460x7 public Science advances, vol 4, iss 6 Animals Wild Songbirds Breeding Vocalization Animal Animal Migration Environment Seasons Population Dynamics Arctic Regions Climate Change Climate Action article 2018 ftcdlib 2022-07-25T17:30:52Z Bioacoustic networks could vastly expand the coverage of wildlife monitoring to complement satellite observations of climate and vegetation. This approach would enable global-scale understanding of how climate change influences phenomena such as migratory timing of avian species. The enormous data sets that autonomous recorders typically generate demand automated analyses that remain largely undeveloped. We devised automated signal processing and machine learning approaches to estimate dates on which songbird communities arrived at arctic breeding grounds. Acoustically estimated dates agreed well with those determined via traditional surveys and were strongly related to the landscape's snow-free dates. We found that environmental conditions heavily influenced daily variation in songbird vocal activity, especially before egg laying. Our novel approaches demonstrate that variation in avian migratory arrival can be detected autonomously. Large-scale deployment of this innovation in wildlife monitoring would enable the coverage necessary to assess and forecast changes in bird migration in the face of climate change. Article in Journal/Newspaper Arctic Climate change University of California: eScholarship Arctic
institution Open Polar
collection University of California: eScholarship
op_collection_id ftcdlib
language unknown
topic Animals
Wild
Songbirds
Breeding
Vocalization
Animal
Animal Migration
Environment
Seasons
Population Dynamics
Arctic Regions
Climate Change
Climate Action
spellingShingle Animals
Wild
Songbirds
Breeding
Vocalization
Animal
Animal Migration
Environment
Seasons
Population Dynamics
Arctic Regions
Climate Change
Climate Action
Oliver, Ruth Y
Ellis, Daniel PW
Chmura, Helen E
Krause, Jesse S
Pérez, Jonathan H
Sweet, Shannan K
Gough, Laura
Wingfield, John C
Boelman, Natalie T
Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology.
topic_facet Animals
Wild
Songbirds
Breeding
Vocalization
Animal
Animal Migration
Environment
Seasons
Population Dynamics
Arctic Regions
Climate Change
Climate Action
description Bioacoustic networks could vastly expand the coverage of wildlife monitoring to complement satellite observations of climate and vegetation. This approach would enable global-scale understanding of how climate change influences phenomena such as migratory timing of avian species. The enormous data sets that autonomous recorders typically generate demand automated analyses that remain largely undeveloped. We devised automated signal processing and machine learning approaches to estimate dates on which songbird communities arrived at arctic breeding grounds. Acoustically estimated dates agreed well with those determined via traditional surveys and were strongly related to the landscape's snow-free dates. We found that environmental conditions heavily influenced daily variation in songbird vocal activity, especially before egg laying. Our novel approaches demonstrate that variation in avian migratory arrival can be detected autonomously. Large-scale deployment of this innovation in wildlife monitoring would enable the coverage necessary to assess and forecast changes in bird migration in the face of climate change.
format Article in Journal/Newspaper
author Oliver, Ruth Y
Ellis, Daniel PW
Chmura, Helen E
Krause, Jesse S
Pérez, Jonathan H
Sweet, Shannan K
Gough, Laura
Wingfield, John C
Boelman, Natalie T
author_facet Oliver, Ruth Y
Ellis, Daniel PW
Chmura, Helen E
Krause, Jesse S
Pérez, Jonathan H
Sweet, Shannan K
Gough, Laura
Wingfield, John C
Boelman, Natalie T
author_sort Oliver, Ruth Y
title Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology.
title_short Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology.
title_full Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology.
title_fullStr Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology.
title_full_unstemmed Eavesdropping on the Arctic: Automated bioacoustics reveal dynamics in songbird breeding phenology.
title_sort eavesdropping on the arctic: automated bioacoustics reveal dynamics in songbird breeding phenology.
publisher eScholarship, University of California
publishDate 2018
url https://escholarship.org/uc/item/5q9460x7
op_coverage eaaq1084
geographic Arctic
geographic_facet Arctic
genre Arctic
Climate change
genre_facet Arctic
Climate change
op_source Science advances, vol 4, iss 6
op_relation qt5q9460x7
https://escholarship.org/uc/item/5q9460x7
op_rights public
_version_ 1766322005685043200