ArticleBMC evolutionary biology2013
Patterns of genetic differentiation at MHC class I genes and microsatellites identify conservation units in the giant panda.
Article in BMC evolutionary biology, 2013. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Cited by 14 papers.
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14 citing papers in PubMed, 29 citations in OpenAlex.
- Balancing selection, genetic drift, and human-mediated introgression interplay to shape MHC (functional) diversity in Mediterranean brown trout.Ecology and evolution · 2021Article
- Crystal structure of the giant panda MHC class I complex: First insights into the viral peptide presentation profile in the bear family.Protein science : a publication of the Protein Society · 2020Article
- MHC-associatedInternational journal for parasitology. Parasites and wildlife · 2020Article
- Evolution of major histocompatibility complex class I genes in the sableEcology and evolution · 2020Article
- Inter- and intrabreed diversity of the major histocompatibility complex (MHC) in primitive and draft horse breeds.PloS one · 2020Article
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- No evidence for MHC-based mate choice in wild giant pandas.Ecology and evolution · 2018Article
- Article
- Spatial patterns of immunogenetic and neutral variation underscore the conservation value of small, isolated American badger populations.Evolutionary applications · 2016Article
- Genetic composition of captive panda population.BMC genetics · 2016Article
- Balancing selection and recombination as evolutionary forces caused population genetic variations in golden pheasant MHC class I genes.BMC evolutionary biology · 2016Article
- Article
- Comparative genomics for biodiversity conservation.Computational and structural biotechnology journal · 2015Review
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Authors and funding
5 authors at 1 institution in 1 country.
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No grant is acknowledged in the PubMed record.
Abstract
backgroundEvaluating patterns of genetic variation is important to identify conservation units (i.e., evolutionarily significant units [ESUs], management units [MUs], and adaptive units [AUs]) in endangered species. While neutral markers could be used to infer population history, their application in the estimation of adaptive variation is limited. The capacity to adapt to various environments is vital for the long-term survival of endangered species. Hence, analysis of adaptive loci, such as the major histocompatibility complex (MHC) genes, is critical for conservation genetics studies. Here, we investigated 4 classical MHC class I genes (Aime-C, Aime-F, Aime-I, and Aime-L) and 8 microsatellites to infer patterns of genetic variation in the giant panda (Ailuropoda melanoleuca) and to further define conservation units.
resultsOverall, we identified 24 haplotypes (9 for Aime-C, 1 for Aime-F, 7 for Aime-I, and 7 for Aime-L) from 218 individuals obtained from 6 populations of giant panda. We found that the Xiaoxiangling population had the highest genetic variation at microsatellites among the 6 giant panda populations and higher genetic variation at Aime-MHC class I genes than other larger populations (Qinling, Qionglai, and Minshan populations). Differentiation index (FST)-based phylogenetic and Bayesian clustering analyses for Aime-MHC-I and microsatellite loci both supported that most populations were highly differentiated. The Qinling population was the most genetically differentiated.
conclusionsThe giant panda showed a relatively higher level of genetic diversity at MHC class I genes compared with endangered felids. Using all of the loci, we found that the 6 giant panda populations fell into 2 ESUs: Qinling and non-Qinling populations. We defined 3 MUs based on microsatellites: Qinling, Minshan-Qionglai, and Daxiangling-Xiaoxiangling-Liangshan. We also recommended 3 possible AUs based on MHC loci: Qinling, Minshan-Qionglai, and Daxiangling-Xiaoxiangling-Liangshan. Furthermore, we recommend that a captive breeding program be considered for the Qinling panda population.
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