Regular ArticlePhylogenetic Relationships in the Bovid Subfamily Antilopinae Based on Mitochondrial DNA Sequences
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Multilocus nuclear markers provide new insights into the origin and evolution of the blackbuck (Antilope cervicapra, Bovidae)
2019, Molecular Phylogenetics and EvolutionCitation Excerpt :Both these methods placed A. cervicapra sister to G. dorcas, a gazelle species confined to North Africa, and therefore nested within the Gazella clade. This phylogenetic relationship corroborates those obtained using chromosomal banding patterns (Cernohorska et al., 2015), as well as older studies based on morphological variation (Groves in Vassart et al., 1995; Rebholz and Harley, 1999) and allozyme data (Vassart, 1994). Gazella bennettii or the Indian chinkara, the only other antelope that is found in the Indian subcontinent, was sister to the clade that includes G. cuvieri, G. leptoceros and G. marica.
The first record of mitochondrial haplotypes of Gazella marica (Artiodactyla, Bovidae) in wild populations in Iran
2019, Mammalian BiologyCitation Excerpt :Molecular studies provide tools for determining the taxonomic and phylogenetic status of taxa (Rebholz and Harley, 1999), and therefore should be applied in population management decisions, i.e. when initiating captive breeding and reintroduction programs (Hammond et al., 2001). Especially when introducing captive animals into areas which still have resident populations, studying the genetic structure of the taxa is crucial to avoid possible consequences such as outbreeding depression (Rebholz and Harley, 1999). So far, reintroduction programs in Iran are conducted without considering genetic information, relying only on geographical proximity and phenotypic similarity.
Phylogenetic analyses of gazelles reveal repeated transitions of key ecological traits and provide novel insights into the origin of the genus Gazella
2016, Molecular Phylogenetics and EvolutionCitation Excerpt :In our present study, we found Gazella spp. to form a monophyletic entity. On the one hand, this contradicts earlier hypotheses based on chromosomal rearrangements (Vassart et al., 1995), but on the other hand confirms more recent studies using DNA sequence information (Bärmann et al., 2013b; Hassanin et al., 2012; Lerp et al., 2013; Rebholz and Harley, 1999). Within the genus, however, the situation is more complex: while being split into two major clades when considering mitochondrial sequence variation only (Hassanin et al., 2012; Lerp et al., 2013), phylogenetic trees including gene intron sequences of nuclear DNA break up the clade comprising G. dorcas, G. arabica, G. gazella and G. spekei with uncertain phylogenetic relationships (Bärmann et al., 2013b; this study).
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2013, Biochemical Systematics and EcologyCitation Excerpt :This finding appeared solid and rejected the subdivision into Aegodontia and Boodontia previously suggested by Schlosser (1904). Antilopinae is, from a phylogenetic standpoint, probably the least understood subfamily of the Bovidae (Rebholz and Harley, 1999). The taxonomy of this subfamily has presented formidable confusion ever since the early attempts at classification by Sclater and Thomas (1897).
A revised phylogeny of Antilopini (Bovidae, Artiodactyla) using combined mitochondrial and nuclear genes
2013, Molecular Phylogenetics and EvolutionCitation Excerpt :Antilopini (gazelles and their allies) has been described as one of the least understood groups of bovids (Rebholz and Harley, 1999; Hernández Fernández and Vrba, 2005).