Browsing by Author "Batzer, Mark A."
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- Some of the metrics are blocked by yourconsent settingsAn Alu-Based Phylogeny of Gibbons (Hylobatidae)(2012)
; ;McLain, Adam T. ;Oldenburg, J. Michael ;Faulk, Christopher ;Bourgeois, Matthew G. ;Conlin, Erin M. ;Mootnick, Alan R. ;de Jong, Pieter J.; ;Carbone, LuciaBatzer, Mark A. - Some of the metrics are blocked by yourconsent settingsAn Alu-Based Phylogeny of Lemurs (Infraorder: Lemuriformes)(2012)
;McLain, Adam T.; ;Faulk, Christopher ;Herke, Scott W. ;Oldenburg, J. Michael ;Bourgeois, Matthew G. ;Abshire, Camille F.; Batzer, Mark A.Lemurs (infraorder: Lemuriformes) are a radiation of strepsirrhine primates endemic to the island of Madagascar. As of 2012, 101 lemur species, divided among five families, have been described. Genetic and morphological evidence indicates all species are descended from a common ancestor that arrived in Madagascar ,55–60 million years ago (mya). Phylogenetic relationships in this species-rich infraorder have been the subject of debate. Here we use Alu elements, a family of primatespecific Short INterspersed Elements (SINEs), to construct a phylogeny of infraorder Lemuriformes. Alu elements are particularly useful SINEs for the purpose of phylogeny reconstruction because they are identical by descent and confounding events between loci are easily resolved by sequencing. The genome of the grey mouse lemur (Microcebus murinus) was computationally assayed for synapomorphic Alu elements. Those that were identified as Lemuriformes-specific were analyzed against other available primate genomes for orthologous sequence in which to design primers for PCR (polymerase chain reaction) verification. A primate phylogenetic panel of 24 species, including 22 lemur species from all five families, was examined for the presence/absence of 138 Alu elements via PCR to establish relationships among species. Of these, 111 were phylogenetically informative. A phylogenetic tree was generated based on the results of this analysis. We demonstrate strong support for the monophyly of Lemuriformes to the exclusion of other primates, with Daubentoniidae, the aye-aye, as the basal lineage within the infraorder. Our results also suggest Lepilemuridae as a sister lineage to Cheirogaleidae, and Indriidae as sister to Lemuridae. Among the Cheirogaleidae, we show strong support for Microcebus and Mirza as sister genera, with Cheirogaleus the sister lineage to both. Our results also support the monophyly of the Lemuridae. Within Lemuridae we place Lemur and Hapalemur together to the exclusion of Eulemur and Varecia, with Varecia the sister lineage to the other three genera. - Some of the metrics are blocked by yourconsent settingsFramework of the Alu Subfamily Evolution in the Platyrrhine Three-Family Clade of Cebidae, Callithrichidae, and Aotidae(2023)
;Storer, Jessica M. ;Walker, Jerilyn A. ;Baker, Jasmine N. ;Hossain, Shifat ;Roos, Christian ;Wheeler, Travis J.Batzer, Mark A.The history of Alu retroposons has been choreographed by the systematic accumulation of inherited diagnostic nucleotide substitutions to form discrete subfamilies, each having a distinct nucleotide consensus sequence. The oldest subfamily, AluJ, gave rise to AluS after the split between Strepsirrhini and what would become Catarrhini and Platyrrhini. The AluS lineage gave rise to AluY in catarrhines and to AluTa in platyrrhines. Platyrrhine Alu subfamilies Ta7, Ta10, and Ta15 were assigned names based on a standardized nomenclature. However, with the subsequent intensification of whole genome sequencing (WGS), large scale analyses to characterize Alu subfamilies using the program COSEG identified entire lineages of subfamilies simultaneously. The first platyrrhine genome with WGS, the common marmoset (Callithrix jacchus; [caljac3]), resulted in Alu subfamily names sf0 to sf94 in an arbitrary order. Although easily resolved by alignment of the consensus sequences, this naming convention can become increasingly confusing as more genomes are independently analyzed. In this study, we reported Alu subfamily characterization for the platyrrhine three-family clade of Cebidae, Callithrichidae, and Aotidae. We investigated one species/genome from each recognized family of Callithrichidae and Aotidae and of both subfamilies (Cebinae andSaimiriinae) of the family Cebidae. Furthermore, we constructed a comprehensive network of Alu subfamily evolution within the three-family clade of platyrrhines to provide a working framework for future research. Alu expansion in the three-family clade has been dominated by AluTa15 and its derivatives. - Some of the metrics are blocked by yourconsent settingsGibbon genome and the fast karyotype evolution of small apes.(2014-09-11)
;Carbone, Lucia ;Harris, R. Alan ;Gnerre, Sante ;Veeramah, Krishna R. ;Lorente-Galdos, Belen ;Huddleston, John; ;Herrero, Javier; ;Aken, Bronwen ;Anaclerio, Fabio ;Archidiacono, Nicoletta ;Baker, Carl ;Barrell, Daniel ;Batzer, Mark A. ;Beal, Kathryn ;Blancher, Antoine ;Bohrson, Craig L.; ;Campbell, Michael S. ;Capozzi, Oronzo ;Casola, Claudio ;Chiatante, Giorgia ;Cree, Andrew ;Damert, Annette ;de Jong, Pieter J. ;Dumas, Laura ;Fernandez-Callejo, Marcos ;Flicek, Paul ;Fuchs, Nina V. ;Gut, Ivo ;Gut, Marta ;Hahn, Matthew W. ;Hernandez-Rodriguez, Jessica ;Hillier, LaDeana W. ;Hubley, Robert ;Ianc, Bianca ;Izsvák, Zsuzsanna ;Jablonski, Nina G. ;Johnstone, Laurel M. ;Karimpour-Fard, Anis ;Konkel, Miriam K. ;Kostka, Dennis ;Lazar, Nathan H. ;Lee, Sandra L. ;Lewis, Lora R. ;Liu, Yue ;Locke, Devin P. ;Mallick, Swapan ;Mendez, Fernando L. ;Muffato, Matthieu ;Nazareth, Lynne V. ;Nevonen, Kimberly A. ;O’Bleness, Majesta ;Ochis, Cornelia ;Odom, Duncan T. ;Pollard, Katherine S. ;Quilez, Javier ;Reich, David ;Rocchi, Mariano ;Schumann, Gerald G. ;Searle, Stephen ;Sikela, James M. ;Skollar, Gabriella ;Smit, Arian ;Sonmez, Kemal ;ten Hallers, Boudewijn ;Terhune, Elizabeth ;Thomas, Gregg W. C. ;Ullmer, Brygg ;Ventura, Mario ;Walker, Jerilyn A. ;Wall, Jeffrey D.; ;Ward, Michelle C. ;Wheelan, Sarah J. ;Whelan, Christopher W. ;White, Simon ;Wilhelm, Larry J. ;Woerner, August E. ;Yandell, Mark ;Zhu, Baoli ;Hammer, Michael F. ;Marques-Bonet, Tomas ;Eichler, Evan E. ;Fulton, Lucinda ;Fronick, Catrina ;Muzny, Donna M. ;Warren, Wesley C. ;Worley, Kim C. ;Rogers, Jeffrey ;Wilson, Richard K.Gibbs, Richard A.Gibbons are small arboreal apes that display an accelerated rate of evolutionary chromosomal rearrangement and occupy a key node in the primate phylogeny between Old World monkeys and great apes. Here we present the assembly and analysis of a northern white-cheeked gibbon (Nomascus leucogenys) genome. We describe the propensity for a gibbon-specific retrotransposon (LAVA) to insert into chromosome segregation genes and alter transcription by providing a premature termination site, suggesting a possible molecular mechanism for the genome plasticity of the gibbon lineage. We further show that the gibbon genera (Nomascus, Hylobates, Hoolock and Symphalangus) experienced a near-instantaneous radiation ∼5 million years ago, coincident with major geographical changes in southeast Asia that caused cycles of habitat compression and expansion. Finally, we identify signatures of positive selection in genes important for forelimb development (TBX5) and connective tissues (COL1A1) that may have been involved in the adaptation of gibbons to their arboreal habitat. - Some of the metrics are blocked by yourconsent settingsNuclear versus mitochondrial DNA: evidence for hybridization in colobine monkeys(2011)
; ; ;Kubatko, Laura S. ;Schwarz, Christiane ;Yang, Mouyu ;Meyer, Dirk ;Nash, Stephen D. ;Xing, Jinchuan ;Batzer, Mark A.; ;Leendertz, Fabian H. ;Ziegler, Thomas ;Perwitasari-Farajallah, Dyah ;Nadler, Tilo; Colobine monkeys constitute a diverse group of primates with major radiations in Africa and Asia. However, phylogenetic relationships among genera are under debate, and recent molecular studies with incomplete taxon-sampling revealed discordant gene trees. To solve the evolutionary history of colobine genera and to determine causes for possible gene tree incongruences, we combined presence/absence analysis of mobile elements with autosomal, X chromosomal, Y chromosomal and mitochondrial sequence data from all recognized colobine genera. - Some of the metrics are blocked by yourconsent settingsOwl Monkey Alu Insertion Polymorphisms and Aotus Phylogenetics(2022)
;Storer, Jessica M. ;Walker, Jerilyn A. ;Rewerts, Lydia C. ;Brown, Morgan A. ;Beckstrom, Thomas O. ;Herke, Scott W.; Batzer, Mark A.Owl monkeys (genus Aotus), or “night monkeys” are platyrrhine primates in the Aotidae family. Early taxonomy only recognized one species, Aotus trivirgatus, until 1983, when Hershkovitz proposed nine unique species designations, classified into red-necked and gray-necked species groups based predominately on pelage coloration. Recent studies questioned this conventional separation of the genus and proposed designations based on the geographical location of wild populations. Alu retrotransposons are a class of mobile element insertion (MEI) widely used to study primate phylogenetics. A scaffold-level genome assembly for one Aotus species, Aotus nancymaae [Anan_2.0], facilitated large-scale ascertainment of nearly 2000 young lineage-specific Alu insertions. This study provides candidate oligonucleotides for locus-specific PCR assays for over 1350 of these elements. For 314 Alu elements across four taxa with multiple specimens, PCR analyses identified 159 insertion polymorphisms, including 21 grouping A. nancymaae and Aotus azarae (red-necked species) as sister taxa, with Aotus vociferans and A. trivirgatus (gray-necked) being more basal. DNA sequencing identified five novel Alu elements from three different taxa. The Alu datasets reported in this study will assist in species identification and provide a valuable resource for Aotus phylogenetics, population genetics and conservation strategies when applied to wild populations. - Some of the metrics are blocked by yourconsent settingsRecently Integrated Alu Elements in Capuchin Monkeys: A Resource for Cebus/Sapajus Genomics(2022)
;Storer, Jessica M. ;Walker, Jerilyn A. ;Rockwell, Catherine E. ;Mores, Grayce ;Beckstrom, Thomas O. ;Orkin, Joseph D. ;Melin, Amanda D. ;Phillips, Kimberley A.; Batzer, Mark A.Capuchins are platyrrhines (monkeys found in the Americas) within the Cebidae family. For most of their taxonomic history, the two main morphological types of capuchins, gracile (untufted) and robust (tufted), were assigned to a single genus, Cebus. Further, all tufted capuchins were assigned to a single species, Cebus apella, despite broad geographic ranges spanning Central and northern South America. In 2012, tufted capuchins were assigned to their genus, Sapajus, with eight currently recognized species and five Cebus species, although these numbers are still under debate. Alu retrotransposons are a class of mobile element insertion (MEI) widely used to study primate phylogenetics. However, Alu elements have rarely been used to study capuchins. Recent genome-level assemblies for capuchins (Cebus imitator; [Cebus_imitator_1.0] and Sapajus apella [GSC_monkey_1.0]) facilitated large scale ascertainment of young lineage-specific Alu insertions. Reported here are 1607 capuchin specific and 678 Sapajus specific Alu insertions along with candidate oligonucleotides for locus-specific PCR assays for many elements. PCR analyses identified 104 genus level and 51 species level Alu insertion polymorphisms. The Alu datasets reported in this study provide a valuable resource that will assist in the classification of archival samples lacking phenotypic data and for the study of capuchin phylogenetic relationships.