Metabarcoding avian diets at airports: implications for birdstrike hazard management planning
Background: Wildlife collisions with aircraft cost the airline industry billions of dollars per annum and represent a public safety risk. Clearly, adapting aerodrome habitats to become less attractive to hazardous wildlife will reduce the incidence of collisions. Formulating effective habitat manage...
| Main Authors: | , , , , , , , |
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| Format: | Journal Article |
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BioMed Central
2013
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| Online Access: | http://www.investigativegenetics.com/content/4/1/27 http://hdl.handle.net/20.500.11937/49093 |
| _version_ | 1848758163358089216 |
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| author | Coghlan, Megan White, Nicole Murray, D. Houston, J. Rutherford, W. Bellgard, M. Haile, James Bunce, Michael |
| author_facet | Coghlan, Megan White, Nicole Murray, D. Houston, J. Rutherford, W. Bellgard, M. Haile, James Bunce, Michael |
| author_sort | Coghlan, Megan |
| building | Curtin Institutional Repository |
| collection | Online Access |
| description | Background: Wildlife collisions with aircraft cost the airline industry billions of dollars per annum and represent a public safety risk. Clearly, adapting aerodrome habitats to become less attractive to hazardous wildlife will reduce the incidence of collisions. Formulating effective habitat management strategies relies on accurate species identification of high-risk species. This can be successfully achieved for all strikes either through morphology and/or DNA-based identifications. Beyond species identification, dietary analysis of birdstrike gut contents can provide valuable intelligence for airport hazard management practices in regards to what food is attracting which species to aerodromes. Here, we present birdstrike identification and dietary data from Perth Airport, Western Australia, an aerodrome that saw approximately 140,000 aircraft movements in 2012. Next-generation high throughput DNA sequencing was employed to investigate 77 carcasses from 16 bird species collected over a 12-month period. Five DNA markers, which broadly characterize vertebrates, invertebrates and plants, were used to target three animalmitochondrial genes (12S rRNA, 16S rRNA, and COI) and a plastid gene (trnL) from DNA extracted from birdstrike carcass gastrointestinal tracts.Results: Over 151,000 DNA sequences were generated, filtered and analyzed by a fusion-tag amplicon sequencing approach. Across the 77 carcasses, the most commonly identified vertebrate was Mus musculus (house mouse). Acrididae (grasshoppers) was the most common invertebrate family identified, and Poaceae (grasses) the most commonly identified plant family. The DNA-based dietary data has the potential to provide some key insights into feeding ecologies within and around the aerodrome.Conclusions: The data generated here, together with the methodological approach, will greatly assist in the development of hazard management plans and, in combination with existing observational studies, provide an improved way to monitor the effectiveness of mitigation strategies (for example, netting of water, grass type, insecticides and so on) at aerodromes. It is hoped that with the insights provided by dietary data, airports will be able to allocate financial resources to the areas that will achieve the best outcomes for birdstrike reduction. |
| first_indexed | 2025-11-14T09:39:37Z |
| format | Journal Article |
| id | curtin-20.500.11937-49093 |
| institution | Curtin University Malaysia |
| institution_category | Local University |
| last_indexed | 2025-11-14T09:39:37Z |
| publishDate | 2013 |
| publisher | BioMed Central |
| recordtype | eprints |
| repository_type | Digital Repository |
| spelling | curtin-20.500.11937-490932017-03-20T06:43:59Z Metabarcoding avian diets at airports: implications for birdstrike hazard management planning Coghlan, Megan White, Nicole Murray, D. Houston, J. Rutherford, W. Bellgard, M. Haile, James Bunce, Michael Airport Diet analysis Birdstrike management Food chain Species identification Birdstrike Background: Wildlife collisions with aircraft cost the airline industry billions of dollars per annum and represent a public safety risk. Clearly, adapting aerodrome habitats to become less attractive to hazardous wildlife will reduce the incidence of collisions. Formulating effective habitat management strategies relies on accurate species identification of high-risk species. This can be successfully achieved for all strikes either through morphology and/or DNA-based identifications. Beyond species identification, dietary analysis of birdstrike gut contents can provide valuable intelligence for airport hazard management practices in regards to what food is attracting which species to aerodromes. Here, we present birdstrike identification and dietary data from Perth Airport, Western Australia, an aerodrome that saw approximately 140,000 aircraft movements in 2012. Next-generation high throughput DNA sequencing was employed to investigate 77 carcasses from 16 bird species collected over a 12-month period. Five DNA markers, which broadly characterize vertebrates, invertebrates and plants, were used to target three animalmitochondrial genes (12S rRNA, 16S rRNA, and COI) and a plastid gene (trnL) from DNA extracted from birdstrike carcass gastrointestinal tracts.Results: Over 151,000 DNA sequences were generated, filtered and analyzed by a fusion-tag amplicon sequencing approach. Across the 77 carcasses, the most commonly identified vertebrate was Mus musculus (house mouse). Acrididae (grasshoppers) was the most common invertebrate family identified, and Poaceae (grasses) the most commonly identified plant family. The DNA-based dietary data has the potential to provide some key insights into feeding ecologies within and around the aerodrome.Conclusions: The data generated here, together with the methodological approach, will greatly assist in the development of hazard management plans and, in combination with existing observational studies, provide an improved way to monitor the effectiveness of mitigation strategies (for example, netting of water, grass type, insecticides and so on) at aerodromes. It is hoped that with the insights provided by dietary data, airports will be able to allocate financial resources to the areas that will achieve the best outcomes for birdstrike reduction. 2013 Journal Article http://hdl.handle.net/20.500.11937/49093 http://www.investigativegenetics.com/content/4/1/27 http://creativecommons.org/licenses/by/2.0/ BioMed Central fulltext |
| spellingShingle | Airport Diet analysis Birdstrike management Food chain Species identification Birdstrike Coghlan, Megan White, Nicole Murray, D. Houston, J. Rutherford, W. Bellgard, M. Haile, James Bunce, Michael Metabarcoding avian diets at airports: implications for birdstrike hazard management planning |
| title | Metabarcoding avian diets at airports: implications for birdstrike hazard management planning |
| title_full | Metabarcoding avian diets at airports: implications for birdstrike hazard management planning |
| title_fullStr | Metabarcoding avian diets at airports: implications for birdstrike hazard management planning |
| title_full_unstemmed | Metabarcoding avian diets at airports: implications for birdstrike hazard management planning |
| title_short | Metabarcoding avian diets at airports: implications for birdstrike hazard management planning |
| title_sort | metabarcoding avian diets at airports: implications for birdstrike hazard management planning |
| topic | Airport Diet analysis Birdstrike management Food chain Species identification Birdstrike |
| url | http://www.investigativegenetics.com/content/4/1/27 http://hdl.handle.net/20.500.11937/49093 |