Palaeogene Origin of Placental Mammals Neither Phylogenomic Nor Palaeontological Data Support A
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Adaptation of mammalian myosin II sequences to body mass Mark N Wass*1, Sarah T Jeanfavre*1,2, Michael P Coghlan*1, Martin Ridout#, Anthony J Baines*3 and Michael A Geeves*3 School of Biosciences*, and School of Mathematics#, Statistics and Actuarial Science, University of Kent, Canterbury, UK 1. Equal contribution 2. Current address: Broad Institute, 415 Main Street, 7029-K, Cambridge MA 02142 3. Joint corresponding authors Key words: selection, muscle contraction, mammalian physiology, heart rate Address for correspondence: Prof M.A.Geeves School of Biosciences, University of Kent, Canterbury CT1 7NJ UK [email protected] tel 44 1227827597 Dr A J Baines School of Biosciences, University of Kent, Canterbury CT1 7NJ UK [email protected] tel 44 1227 823462 SUPPLEMENTARY MATERIAL Supplementary Table 1. Source of Myosin sequences and the mass of each species used in the analysis of Fig 1 & 2 Species Isoform Mass Skeletal Skeletal Embryonic Skeletal α- β-cardiac Perinatal Non- Non- Smooth Extraocular Slow (kg) 2d/x 2a 2b cardiac muscle A muscle B Muscle Tonic Human P12882 Q9UKX2 251757455 Q9Y623 P13533 P12883 P13535 P35579 219841954 13432177 110624781 599045671 68a Bonobo 675746236 397494570 675746242 675746226 397473260 397473262 675746209 675764569 675746138 675746206 675798456 45.5a Macaque 544497116 544497114 544497126 109113269 544446347 544446351 544497122 383408157 384940798 387541766 544497107 544465262 6.55b Tarsier 640786419 640786435 640786417 640818214 640818212 640786413 640796733 640805785 640786411 640822915 0.1315c -
Evolutionary History of Carnivora (Mammalia, Laurasiatheria) Inferred
bioRxiv preprint doi: https://doi.org/10.1101/2020.10.05.326090; this version posted October 5, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. This article is a US Government work. It is not subject to copyright under 17 USC 105 and is also made available for use under a CC0 license. 1 Manuscript for review in PLOS One 2 3 Evolutionary history of Carnivora (Mammalia, Laurasiatheria) inferred 4 from mitochondrial genomes 5 6 Alexandre Hassanin1*, Géraldine Véron1, Anne Ropiquet2, Bettine Jansen van Vuuren3, 7 Alexis Lécu4, Steven M. Goodman5, Jibran Haider1,6,7, Trung Thanh Nguyen1 8 9 1 Institut de Systématique, Évolution, Biodiversité (ISYEB), Sorbonne Université, 10 MNHN, CNRS, EPHE, UA, Paris. 11 12 2 Department of Natural Sciences, Faculty of Science and Technology, Middlesex University, 13 United Kingdom. 14 15 3 Centre for Ecological Genomics and Wildlife Conservation, Department of Zoology, 16 University of Johannesburg, South Africa. 17 18 4 Parc zoologique de Paris, Muséum national d’Histoire naturelle, Paris. 19 20 5 Field Museum of Natural History, Chicago, IL, USA. 21 22 6 Department of Wildlife Management, Pir Mehr Ali Shah, Arid Agriculture University 23 Rawalpindi, Pakistan. 24 25 7 Forest Parks & Wildlife Department Gilgit-Baltistan, Pakistan. 26 27 28 * Corresponding author. E-mail address: [email protected] bioRxiv preprint doi: https://doi.org/10.1101/2020.10.05.326090; this version posted October 5, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. This article is a US Government work. -
Speciation Network in Laurasiatheria: Retrophylogenomic Signals
Downloaded from genome.cshlp.org on June 1, 2017 - Published by Cold Spring Harbor Laboratory Press Research Speciation network in Laurasiatheria: retrophylogenomic signals Liliya Doronina,1 Gennady Churakov,1,2,5 Andrej Kuritzin,3 Jingjing Shi,1 Robert Baertsch,4 Hiram Clawson,4 and Jürgen Schmitz1,5 1Institute of Experimental Pathology, ZMBE, University of Münster, 48149 Münster, Germany; 2Institute for Evolution and Biodiversity, University of Münster, 48149 Münster, Germany; 3Department of System Analysis, Saint Petersburg State Institute of Technology, 190013 St. Petersburg, Russia; 4Department of Biomolecular Engineering, University of California, Santa Cruz, California 95064, USA Rapid species radiation due to adaptive changes or occupation of new ecospaces challenges our understanding of ancestral speciation and the relationships of modern species. At the molecular level, rapid radiation with successive speciations over short time periods—too short to fix polymorphic alleles—is described as incomplete lineage sorting. Incomplete lineage sorting leads to random fixation of genetic markers and hence, random signals of relationships in phylogenetic reconstruc- tions. The situation is further complicated when you consider that the genome is a mosaic of ancestral and modern incom- pletely sorted sequence blocks that leads to reconstructed affiliations to one or the other relative, depending on the fixation of their shared ancestral polymorphic alleles. The laurasiatherian relationships among Chiroptera, Perissodactyla, Cetartiodactyla, and Carnivora present a prime example for such enigmatic affiliations. We performed whole-genome screenings for phylogenetically diagnostic retrotransposon insertions involving the representatives bat (Chiroptera), horse (Perissodactyla), cow (Cetartiodactyla), and dog (Carnivora), and extracted among 162,000 preselected cases 102 virtually homoplasy-free, phylogenetically informative retroelements to draw a complete picture of the highly complex evolutionary relations within Laurasiatheria. -
Arms Race of Temporal Partitioning Between Carnivorous And
www.nature.com/scientificreports OPEN Arms race of temporal partitioning between carnivorous and herbivorous mammals Received: 26 October 2017 Yonghua Wu1,2, Haifeng Wang3, Haitao Wang4 & Jiang Feng2,5 Accepted: 12 January 2018 Reciprocal coevolutionary changes in predation and anti-predator behaviours have long been Published: xx xx xxxx hypothesized, but evolutionary-scale evidence is rare. Here, we reconstructed the evolutionary-scale changes in the diel activity patterns of a predator-prey system (carnivorous and herbivorous mammals) based on a molecular phyloecological approach, providing evidence of long-term antagonistic coevolutionary changes in their diel activities. Our molecular reconstruction of diel activity patterns, which is supported by morphological evidence, consistently showed that carnivorous mammals were subjected to a shift from diurnality to nocturnality, while herbivorous mammals experienced a shift from nocturnality to diurnality during their evolutionary histories. A shift in the diel activity of the herbivores as a result of carnivore avoidance is hypothesized based on molecular, morphological and behavioural evidence, and our results suggest an evolutionary-scale arms race of diel activity shifts between carnivorous and herbivorous mammals. Interactions between carnivorous and herbivorous mammals, representing one of the classic coevolutionary sys- tems, lead to long-term reciprocal evolutionary changes in predation and anti-predator behaviours1. Among carnivorous mammals, felids (Felidae) and canids (Canidae) are the main predators of herbivorous mammals (e.g., ungulates)2. Tese carnivores (felids and canids) and ungulates show diferentiated diel activity patterns, with most felids and canids being mainly nocturnal, while ungulates are primarily diurnal3,4. Given the difer- entiation of their diel activity patterns, one possibility is that the diurnality of ungulates may have evolved as an anti-predator behaviour. -
Phylogeography of Moose in Western North America
Journal of Mammalogy, 101(1):10–23, 2020 DOI:10.1093/jmammal/gyz163 Published online November 30, 2019 Phylogeography of moose in western North America Nicholas J. DeCesare,* Byron V. Weckworth, Kristine L. Pilgrim, Andrew B. D. Walker, Eric J. Bergman, Kassidy E. Colson, Rob Corrigan, Richard B. Harris, Mark Hebblewhite, Brett R. Jesmer, Jesse R. Newby, Jason R. Smith, Rob B. Tether, Timothy P. Thomas, and Michael K. Schwartz Montana Fish, Wildlife and Parks, Missoula, MT 59804, USA (NJD) Panthera, New York, NY 10018, USA (BVW) Rocky Mountain Research Station, United States Forest Service, Missoula, MT 59801, USA (KLP, MKS) British Columbia Ministry of Forests, Lands, Natural Resource Operations and Rural Development, Penticton, British Columbia V2A 7C8, Canada (ABDW) Colorado Parks and Wildlife, Fort Collins, CO 80526, USA (EJB) Alaska Department of Fish and Game, Palmer, AK 99645, USA (KEC) Alberta Environment and Parks, Edmonton, Alberta T5K 2M4, Canada (RC) Washington Department of Fish and Wildlife, Olympia, WA 98501, USA (RBH) University of Montana, Missoula, MT 59812, USA (MH) University of Wyoming, Laramie, WY 82071, USA (BRJ) Montana Fish, Wildlife and Parks, Kalispell, MT 59901, USA (JRN) North Dakota Game and Fish Department, Jamestown, ND 58401, USA (JRS) Saskatchewan Ministry of Environment, Meadow Lake, Saskatchewan S9X 1Y5, Canada (RBT) Wyoming Game and Fish Department, Sheridan, WY 82801, USA (TPT) * Correspondent: [email protected] Subspecies designations within temperate species’ ranges often reflect populations that were isolated by past continental glaciation, and glacial vicariance is believed to be a primary mechanism behind the diversification of several subspecies of North American cervids. -
Eutheria (Placental Mammals) Thought of As More Primitive
Eutheria (Placental Introductory article Mammals) Article Contents . Introduction J David Archibald, San Diego State University, San Diego, California, USA . Basic Design . Taxonomic and Ecological Diversity Eutheria includes one of three major clades of mammals, the extant members of which are . Fossil History and Distribution referred to as placentals. Phylogeny Introduction doi: 10.1038/npg.els.0004123 Eutheria (or Placentalia) is the most taxonomically diverse each. Except for placentals that have supernumerary teeth of three branches or clades of mammals, the other two (e.g. some whales, armadillos, etc.), in extant placentals, the being Metatheria (or Marsupialia) and Prototheria (or number of teeth is at most three upper and lower incisors, Monotremata). When named by Gill in 1872, Eutheria in- one upper and lower canine, four upper and lower premo- cluded both marsupials and placentals. It was Huxley in lars and three upper and lower molars. Pigs retain this pat- 1880 who recognized Eutheria basically as used today to tern, and except for one fewer upper molar, a domestic dog include only placentals. McKenna and Bell in their Clas- does as well. Compared to reptiles, mammals have fewer sification of Mammals published in 1997, chose to use Pla- skull bones through fusion and loss, although bones are centalia rather than Eutheria to avoid the confusion of variously emphasized in each of the three major mammalian what taxa should be included in Eutheria. Others such as taxa. See also: Digestive system of mammals; Ingestion in Rougier have used Eutheria and Placentalia in the sense mammals; Mesozoic mammals; Reptilia (reptiles) used here. Placentalia includes all extant placentals and Physiologically, mammals are all endotherms with var- their most recent common ancestor. -
MHC Class II DQB Diversity in the Japanese Black Bear, Ursus Thibetanus Japonicus
Yasukochi et al. BMC Evolutionary Biology 2012, 12:230 http://www.biomedcentral.com/1471-2148/12/230 RESEARCH ARTICLE Open Access MHC class II DQB diversity in the Japanese black bear, Ursus thibetanus japonicus Yoshiki Yasukochi1*, Toshifumi Kurosaki2, Masaaki Yoneda2, Hiroko Koike3 and Yoko Satta1 Abstract Background: The major histocompatibility complex (MHC) genes are one of the most important genetic systems in the vertebrate immune response. The diversity of MHC genes may directly influence the survival of individuals against infectious disease. However, there has been no investigation of MHC diversity in the Asiatic black bear (Ursus thibetanus). Here, we analyzed 270-bp nucleotide sequences of the entire exon 2 region of the MHC DQB gene by using 188 samples from the Japanese black bear (Ursus thibetanus japonicus) from 12 local populations. Results: Among 185 of 188 samples, we identified 44 MHC variants that encoded 31 different amino acid sequences (allotypes) and one putative pseudogene. The phylogenetic analysis suggests that MHC variants detected from the Japanese black bear are derived from the DQB locus. One of the 31 DQB allotypes, Urth-DQB*01, was found to be common to all local populations. Moreover, this allotype was shared between the black bear on the Asian continent and the Japanese black bear, suggesting that Urth-DQB*01 might have been maintained in the ancestral black bear population for at least 300,000 years. Our findings, from calculating the ratio of non-synonymous to synonymous substitutions, indicate that balancing selection has maintained genetic variation of peptide-binding residues at the DQB locus of the Japanese black bear. -
Evolutionary History of LINE-1 in the Major Clades of Placental Mammals Paul D
Evolutionary History of LINE-1 in the Major Clades of Placental Mammals Paul D. Waters1,2, Gauthier Dobigny1,3, Peter J. Waddell4,5, Terence J. Robinson1* 1 Evolutionary Genomics Group, Department of Botany and Zoology, University of Stellenbosch, Matieland, South Africa, 2 Comparative Genomics Group, Research School of Biological Sciences, The Australian National University, Canberra, Australia, 3 Institut de Recherche pour le De´veloppement, Centre de Biologie pour la Gestion des Populations, Montferrier-sur-Lez, France, 4 Laboratory of Biometry and Bioinformatics, University of Tokyo, Tokyo, Japan, 5 South Carolina Cancer Center, University of South Carolina, Columbia, South Carolina, United States of America Background. LINE-1 constitutes an important component of mammalian genomes. It has a dynamic evolutionary history characterized by the rise, fall and replacement of subfamilies. Most data concerning LINE-1 biology and evolution are derived from the human and mouse genomes and are often assumed to hold for all placentals. Methodology. To examine LINE-1 relationships, sequences from the 39 region of the reverse transcriptase from 21 species (representing 13 orders across Afrotheria, Xenarthra, Supraprimates and Laurasiatheria) were obtained from whole genome sequence assemblies, or by PCR with degenerate primers. These sequences were aligned and analysed. Principal Findings. Our analysis reflects accepted placental relationships suggesting mostly lineage-specific LINE-1 families. The data provide clear support for several clades including Glires, Supraprimates, Laurasiatheria, Boreoeutheria, Xenarthra and Afrotheria. Within the afrotherian LINE-1 (AfroLINE) clade, our tree supports Paenungulata, Afroinsectivora and Afroinsectiphillia. Xenarthran LINE-1 (XenaLINE) falls sister to AfroLINE, providing some support for the Atlantogenata (Xenarthra+Afrotheria) hypothesis. -
Mammalian Clades
order Dermoptera colugos (flying lemurs) order Scandentia tree shrews Euarchonta order Primates apes, monkeys, prosimians background sheet order Lagomorpha rabbits, hares, pikas Glires Mammalian clades Clade Laurasiatheria order Rodentia rats, mice, porcupines, beavers, lade Laurasiatheria is made up of squirrels, gophers, voles, both living and extinct animals. chipmunks, agoutis, guinea pigs C order Chiroptera There are eight traditional, living bats Linnaean orders within the clade. Scientists hypothesise laurasiatherians shared a common ancestor approximately order Perissodactyla 90 million years ago. Laurasiatheria odd-toed ungulates is thought to have originated on the northern supercontinent, Laurasia, that comprised North America, Europe and order Carnivora most of Asia. seals, dogs, bears, cats, civets, fossas, mongooses, weasels, otters Evidence for Laurasiatheria emerged from molecular work conducted in 2001. Further research has resulted in additional order Pholidota changes to taxonomic groupings, pangolins including merging orders Cetacea and Artiodactyla into order Cetartiodactyla. Before molecular evidence was available, order Cetartiodactyla (order Cetacea + order Artiodactyla) some members of Laurasiatheria whales, dolphins, even-toed ungulates were considered to share evolutionary relationships with different groups of animals. Now, many of these relationships are considered to represent convergent order Soricomorpha hedgehogs evolution. order Erinaceomorpha Figure 1: cladogram of Laurasiatheria shrews, moles This cladogram represents only one of many competing hypotheses, as relationships within Laurasiatheria remain unresolved. Table 1: examples of previous organisation of clade Laurasiatheria MAMMALS CLASSIFICATION/ORGANISATION bats Bats were formerly linked with primates, tree shrews, elephant shrews and flying lemurs (colugos) in the order Archonta. This association is not supported by molecular evidence. Some recent molecular studies suggest a relationship with moles. -
I Think Learning This Material Is Easiest in Small Batches. the Phylogeny Above Provides a Natural Means for Breaking the 18 Eu
I think learning this material is easiest in small batches. The phylogeny above provides a natural means for breaking the 18 eutherian orders up into easily digested chunks. Start by learning the Afrotheria (this name means “African mammals”). There are six orders, and they form two clades, each with three orders. Don’t worry about naming the clades, but one contains the elephants and their kin: Order Proboscidia (named for their trunks, or proboscis). Order Sirenia (named for mermaids, or sirens, of Greek mythology). Order Hyracoidea (shaped like a hyrax). The other clade contains three somewhat odd orders: Order Macroscelida (elephant shrews; “big posterior limbs” named for cursorial adaptations). Order Tubulindentata (Aardvark; named for their teeth, which are reduced to pegs comprised of tubes of dentine). Order Afrosoricida (tenrecs & golden moles; this name means “African shrews”. Both groups were formerly classified as relatives of shrews in the family Soricidae). The next order has no close relatives, but diverged and diversified in South America. Order Xenarthra (This name means “strange joint” and refers to the additional articulations between vertebrae formed by the xenarthrous process). The remaining 11 orders are in the group Boreoeutheria, a name that means “northern placental mammals.” This name refers to the likelihood that all originated in the northern hemisphere (although they have dispersed throughout the world). The Boreoeutherian orders are split into two clades, the Euarchontoglires (a truly horrendous name – sorry) and the Laurasiatheria (mammals from Laurasia, the supercontinent composed of North America and Eurasia). The Euarchontiglires contains two clades. The first of these is the Glires, which contains rabbits and rodents. -
Nomenclature and Placental Mammal Phylogeny Robert J Asher1*, Kristofer M Helgen2
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by PubMed Central Asher and Helgen BMC Evolutionary Biology 2010, 10:102 http://www.biomedcentral.com/1471-2148/10/102 CORRESPONDENCE Open Access Nomenclature and placental mammal phylogeny Robert J Asher1*, Kristofer M Helgen2 Abstract An issue arising from recent progress in establishing the placental mammal Tree of Life concerns the nomenclature of high-level clades. Fortunately, there are now several well-supported clades among extant mammals that require unambiguous, stable names. Although the International Code of Zoological Nomenclature does not apply above the Linnean rank of family, and while consensus on the adoption of competing systems of nomenclature does not yet exist, there is a clear, historical basis upon which to arbitrate among competing names for high-level mamma- lian clades. Here, we recommend application of the principles of priority and stability, as laid down by G.G. Simp- son in 1945, to discriminate among proposed names for high-level taxa. We apply these principles to specific cases among placental mammals with broad relevance for taxonomy, and close with particular emphasis on the Afrotherian family Tenrecidae. We conclude that no matter how reconstructions of the Tree of Life change in years to come, systematists should apply new names reluctantly, deferring to those already published and maximizing consistency with existing nomenclature. Background At the family level and below, Linnean categories The last decade has witnessed an unprecedented increase require types (genera for families, species for genera, in the stability of the mammalian Tree of Life [e.g., specimens for species). -
97Th Annual Meeting of the American Society of Mammalogists 20-24 June 2017 Abstract Book
97TH ANNUAL MEETING OF THE AMERICAN SOCIETY OF MAMMALOGISTS 20-24 JUNE 2017 UNIVERSITY OF IDAHO -MOSCOW, IDAHO- ABSTRACT BOOK The 2017 American Society of Mammalogists Annual Meeting logo was designed by Audrey DiGirolamo (seated left), who is majoring in Studio Art and Design at the University of Idaho. Associate Professor Delphine Keim’s (seated right) graphic design class developed logos with Idaho mammal themes as a class project. The best design was selected by the local committee for use at the meeting. 97TH ANNUAL MEETING OF THE AMERICAN SOCIETY OF MAMMALOGISTS 20-24 JUNE 2017 UNIVERSITY OF IDAHO -MOSCOW, IDAHO- AMERICAN SOCIETY OF MAMMALOGISTS (ASM) The American Society of Mammalogists (ASM) was established in 1919 for the purpose of promoting interest in the study of mammals. AN OVERVIEW In addition to being among the most charismatic of animals, mammals are important in many disciplines from paleontology to ecology and evolution. We, of course, are mammals and thus are in the interesting position of studying ourselves in quest of a greater understanding of the role of mammals in the natural world. The ASM is currently composed of thousands of members, many of who are professional scientists. Members of the Society have always had a strong interest in the public good, and this is reflected in their involvement in providing information for public policy, resources management, conservation, and education. The Society hosts annual meetings and maintains several publications. The flagship publication is the Journal of Mammalogy, a journal produced 6 times per year that accepts submissions on all aspects of mammalogy.