A Vocal-Based Analytical Method for Goose Behaviour Recognition

Since human-wildlife conflicts are increasing, the development of cost-effective methods for reducing damage or conflict levels is important in wildlife management. A wide range of devices to detect and deter animals causing conflict are used for this purpose, although their effectiveness is often h...

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Published in:Sensors
Main Authors: Kim Arild Steen, Ole Roland Therkildsen, Henrik Karstoft, Ole Green
Format: Text
Language:English
Published: Molecular Diversity Preservation International 2012
Subjects:
Online Access:https://doi.org/10.3390/s120303773
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spelling ftmdpi:oai:mdpi.com:/1424-8220/12/3/3773/ 2023-08-20T04:05:41+02:00 A Vocal-Based Analytical Method for Goose Behaviour Recognition Kim Arild Steen Ole Roland Therkildsen Henrik Karstoft Ole Green 2012-03-21 application/pdf https://doi.org/10.3390/s120303773 EN eng Molecular Diversity Preservation International Physical Sensors https://dx.doi.org/10.3390/s120303773 https://creativecommons.org/licenses/by/3.0/ Sensors; Volume 12; Issue 3; Pages: 3773-3788 support vector machines goose behaviour pattern recognition vocalisations GFCC Text 2012 ftmdpi https://doi.org/10.3390/s120303773 2023-07-31T20:28:30Z Since human-wildlife conflicts are increasing, the development of cost-effective methods for reducing damage or conflict levels is important in wildlife management. A wide range of devices to detect and deter animals causing conflict are used for this purpose, although their effectiveness is often highly variable, due to habituation to disruptive or disturbing stimuli. Automated recognition of behaviours could form a critical component of a system capable of altering the disruptive stimuli to avoid this. In this paper we present a novel method to automatically recognise goose behaviour based on vocalisations from flocks of free-living barnacle geese (Branta leucopsis). The geese were observed and recorded in a natural environment, using a shielded shotgun microphone. The classification used Support Vector Machines (SVMs), which had been trained with labeled data. Greenwood Function Cepstral Coefficients (GFCC) were used as features for the pattern recognition algorithm, as they can be adjusted to the hearing capabilities of different species. Three behaviours are classified based in this approach, and the method achieves a good recognition of foraging behaviour (86–97% sensitivity, 89–98% precision) and a reasonable recognition of flushing (79–86%, 66–80%) and landing behaviour(73–91%, 79–92%). The Support Vector Machine has proven to be a robust classifier for this kind of classification, as generality and non-linearcapabilities are important. We conclude that vocalisations can be used to automatically detect behaviour of conflict wildlife species, and as such, may be used as an integrated part of awildlife management system. Text Branta leucopsis MDPI Open Access Publishing Sensors 12 3 3773 3788
institution Open Polar
collection MDPI Open Access Publishing
op_collection_id ftmdpi
language English
topic support vector machines
goose behaviour
pattern recognition
vocalisations
GFCC
spellingShingle support vector machines
goose behaviour
pattern recognition
vocalisations
GFCC
Kim Arild Steen
Ole Roland Therkildsen
Henrik Karstoft
Ole Green
A Vocal-Based Analytical Method for Goose Behaviour Recognition
topic_facet support vector machines
goose behaviour
pattern recognition
vocalisations
GFCC
description Since human-wildlife conflicts are increasing, the development of cost-effective methods for reducing damage or conflict levels is important in wildlife management. A wide range of devices to detect and deter animals causing conflict are used for this purpose, although their effectiveness is often highly variable, due to habituation to disruptive or disturbing stimuli. Automated recognition of behaviours could form a critical component of a system capable of altering the disruptive stimuli to avoid this. In this paper we present a novel method to automatically recognise goose behaviour based on vocalisations from flocks of free-living barnacle geese (Branta leucopsis). The geese were observed and recorded in a natural environment, using a shielded shotgun microphone. The classification used Support Vector Machines (SVMs), which had been trained with labeled data. Greenwood Function Cepstral Coefficients (GFCC) were used as features for the pattern recognition algorithm, as they can be adjusted to the hearing capabilities of different species. Three behaviours are classified based in this approach, and the method achieves a good recognition of foraging behaviour (86–97% sensitivity, 89–98% precision) and a reasonable recognition of flushing (79–86%, 66–80%) and landing behaviour(73–91%, 79–92%). The Support Vector Machine has proven to be a robust classifier for this kind of classification, as generality and non-linearcapabilities are important. We conclude that vocalisations can be used to automatically detect behaviour of conflict wildlife species, and as such, may be used as an integrated part of awildlife management system.
format Text
author Kim Arild Steen
Ole Roland Therkildsen
Henrik Karstoft
Ole Green
author_facet Kim Arild Steen
Ole Roland Therkildsen
Henrik Karstoft
Ole Green
author_sort Kim Arild Steen
title A Vocal-Based Analytical Method for Goose Behaviour Recognition
title_short A Vocal-Based Analytical Method for Goose Behaviour Recognition
title_full A Vocal-Based Analytical Method for Goose Behaviour Recognition
title_fullStr A Vocal-Based Analytical Method for Goose Behaviour Recognition
title_full_unstemmed A Vocal-Based Analytical Method for Goose Behaviour Recognition
title_sort vocal-based analytical method for goose behaviour recognition
publisher Molecular Diversity Preservation International
publishDate 2012
url https://doi.org/10.3390/s120303773
genre Branta leucopsis
genre_facet Branta leucopsis
op_source Sensors; Volume 12; Issue 3; Pages: 3773-3788
op_relation Physical Sensors
https://dx.doi.org/10.3390/s120303773
op_rights https://creativecommons.org/licenses/by/3.0/
op_doi https://doi.org/10.3390/s120303773
container_title Sensors
container_volume 12
container_issue 3
container_start_page 3773
op_container_end_page 3788
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