A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)

Abstract The black‐footed cat (Felis nigripes) is endemic to the arid regions of southern Africa. One of the world's smallest wild felids, the species occurs at low densities and is secretive and elusive, which makes ecological studies difficult. Genetic data could provide key information such...

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Published in:Ecology and Evolution
Main Authors: Vimbai I. Siziba, Michelle M. Schroeder, Beryl Wilson, Alexander Sliwa, Sandi Willows‐Munro
Format: Article
Language:English
Published: Wiley 2024-04-01
Subjects:
Online Access:https://doi.org/10.1002/ece3.11315
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author Vimbai I. Siziba
Michelle M. Schroeder
Beryl Wilson
Alexander Sliwa
Sandi Willows‐Munro
author_facet Vimbai I. Siziba
Michelle M. Schroeder
Beryl Wilson
Alexander Sliwa
Sandi Willows‐Munro
author_sort Vimbai I. Siziba
collection DOAJ
container_title Ecology and Evolution
description Abstract The black‐footed cat (Felis nigripes) is endemic to the arid regions of southern Africa. One of the world's smallest wild felids, the species occurs at low densities and is secretive and elusive, which makes ecological studies difficult. Genetic data could provide key information such as estimates on population size, sex ratios, and genetic diversity. In this study, we test if microsatellite loci can be successfully amplified from scat samples that could be noninvasively collected from the field. Using 21 blood and scat samples collected from the same individuals, we statistically tested whether nine microsatellites previously designed for use in domestic cats can be used to identify individual black‐footed cats. Genotypes recovered from blood and scat samples were compared to assess loss of heterozygosity, allele dropout, and false alleles resulting from DNA degradation or PCR inhibitors present in scat samples. The microsatellite markers were also used to identify individuals from scats collected in the field that were not linked to any blood samples. All nine microsatellites used in this study were amplified successfully and were polymorphic. Microsatellite loci were found to have sufficient discriminatory power to distinguish individuals and identify clones. In conclusion, these molecular markers can be used to monitor populations of wild black‐footed cats noninvasively. The genetic data will be able to contribute important information that may be used to guide future conservation initiatives.
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spelling doaj-art-5fef80bc002947dda7bc74f0a9d4e7142025-08-19T23:06:33ZengWileyEcology and Evolution2045-77582024-04-01144n/an/a10.1002/ece3.11315A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)Vimbai I. Siziba0Michelle M. Schroeder1Beryl Wilson2Alexander Sliwa3Sandi Willows‐Munro4School of Life Sciences University of KwaZulu‐Natal Scottsville South AfricaBlack‐Footed Cat Working Group Kimberley South AfricaMcGregor Museum Kimberley Northern Cape South AfricaKölner Zoo AG (Cologne Zoo) Köln GermanySchool of Life Sciences University of KwaZulu‐Natal Scottsville South AfricaAbstract The black‐footed cat (Felis nigripes) is endemic to the arid regions of southern Africa. One of the world's smallest wild felids, the species occurs at low densities and is secretive and elusive, which makes ecological studies difficult. Genetic data could provide key information such as estimates on population size, sex ratios, and genetic diversity. In this study, we test if microsatellite loci can be successfully amplified from scat samples that could be noninvasively collected from the field. Using 21 blood and scat samples collected from the same individuals, we statistically tested whether nine microsatellites previously designed for use in domestic cats can be used to identify individual black‐footed cats. Genotypes recovered from blood and scat samples were compared to assess loss of heterozygosity, allele dropout, and false alleles resulting from DNA degradation or PCR inhibitors present in scat samples. The microsatellite markers were also used to identify individuals from scats collected in the field that were not linked to any blood samples. All nine microsatellites used in this study were amplified successfully and were polymorphic. Microsatellite loci were found to have sufficient discriminatory power to distinguish individuals and identify clones. In conclusion, these molecular markers can be used to monitor populations of wild black‐footed cats noninvasively. The genetic data will be able to contribute important information that may be used to guide future conservation initiatives.https://doi.org/10.1002/ece3.11315allelic dropoutfecal DNAFelis nigripesgenotyping errormicrosatellitesscats
spellingShingle Vimbai I. Siziba
Michelle M. Schroeder
Beryl Wilson
Alexander Sliwa
Sandi Willows‐Munro
A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)
allelic dropout
fecal DNA
Felis nigripes
genotyping error
microsatellites
scats
title A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)
title_full A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)
title_fullStr A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)
title_full_unstemmed A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)
title_short A method for noninvasive individual genotyping of black‐footed cat (Felis nigripes)
title_sort method for noninvasive individual genotyping of black footed cat felis nigripes
topic allelic dropout
fecal DNA
Felis nigripes
genotyping error
microsatellites
scats
url https://doi.org/10.1002/ece3.11315
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