Cryptic Speciation and Gene Flow in a Migratory Songbird Species Complex
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Detection of Cryptic Species Xa9846584
DETECTION OF CRYPTIC SPECIES XA9846584 A.F. COCKBURN, T. JENSEN, J.A. SEAWRIGHT United States Department of Agriculture, Agricultural Research Service, Medical and Veterinary Entomology Research Laboratory, Gainesville, Florida, USA Abstract Morphologically similar cryptic species are common in insects. In Anopheles mosquitoes, most morphologically described species are complexes of cryptic species. Cryptic species are of great practical importance for two reasons: first, one or more species of the complex might not be a pest and control efforts directed at the complex as a whole would therefore be partly wasted; and second, genetic (and perhaps biological) control strategies directed against one species of the complex would not affect other species of the complex. At least one SIT effort has failed because the released sterile insects were of a different species and therefore did not mate with the wild insects being targeted. We use a multidisciplinary approach for detection of cryptic species complexes, focusing first on identifying variability in wild populations using RFLPs of mitochondrial and ribosomal RNA genes (mtDNA and rDNA); followed by confirmation using a variety of other techniques. For rapid identification of wild individuals of field collections, we use a DNA dot blot assay. DNA probes can be isolated by differential screening, however we are currently focusing on the sequencing of the rDNA extragenic spacers. These regions are repeated several hundred times per genome in mosquitoes and evolve rapidly. Molecular drive tends to keep the individual genes homogeneous within a species. 1. INTRODUCTION Surprisingly, the problem of cryptic species has not received adequate attention in pest control. Two recent examples of important pests that are cryptic species are the silverleaf whitefly (originally thought to be the sweet potato whitefly), which has caused enormous economic damage in the US in the last few years, and was not described as a separate species until last year [1]; the fall armyworm, which was recently described as two species [2]. -
Local Adaptation Fuels Cryptic Speciation in Terrestrial Annelids’
bioRxiv preprint doi: https://doi.org/10.1101/872309; this version posted December 11, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. Title: ‘Local adaptation fuels cryptic speciation in terrestrial annelids’ Running title: Local adaptation in cryptic terrestrial annelids Daniel Fernández Marchán1,2*, Marta Novo1, Nuria Sánchez1, Jorge Domínguez2, Darío J. Díaz Cosín1, Rosa Fernández3* 1 Department of Biodiversity, Ecology and Evolution, Faculty of Biology, Universidad Complutense de Madrid, Madrid, Spain. 2 Current address: Departamento de Ecoloxía e Bioloxía Animal, Universidade de Vigo, Vigo, E-36310, Spain 3 Animal Biodiversity and Evolution Program, Institute of Evolutionary Biology (CSIC- UPF), Passeig Marítim de la Barceloneta, 37-49, 08003 Barcelona, Spain. * Corresponding authors: [email protected], [email protected] Abstract bioRxiv preprint doi: https://doi.org/10.1101/872309; this version posted December 11, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. Uncovering the genetic and evolutionary basis of cryptic speciation is a major focus of evolutionary biology. Next Generation Sequencing (NGS) allows the identification of genome-wide local adaptation signatures, but has rarely been applied to cryptic complexes - particularly in the soil milieu - as is the case with integrative taxonomy. The earthworm genus Carpetania, comprising six previously suggested putative cryptic lineages, is a promising model to study the evolutionary phenomena shaping cryptic speciation in soil-dwelling lineages. Genotyping-By-Sequencing (GBS) was used to provide genome-wide information about genetic variability between seventeen populations, and geometric morphometrics analyses of genital chaetae were performed to investigate unexplored cryptic morphological evolution. -
Biodiversity: the UK Overseas Territories. Peterborough, Joint Nature Conservation Committee
Biodiversity: the UK Overseas Territories Compiled by S. Oldfield Edited by D. Procter and L.V. Fleming ISBN: 1 86107 502 2 © Copyright Joint Nature Conservation Committee 1999 Illustrations and layout by Barry Larking Cover design Tracey Weeks Printed by CLE Citation. Procter, D., & Fleming, L.V., eds. 1999. Biodiversity: the UK Overseas Territories. Peterborough, Joint Nature Conservation Committee. Disclaimer: reference to legislation and convention texts in this document are correct to the best of our knowledge but must not be taken to infer definitive legal obligation. Cover photographs Front cover: Top right: Southern rockhopper penguin Eudyptes chrysocome chrysocome (Richard White/JNCC). The world’s largest concentrations of southern rockhopper penguin are found on the Falkland Islands. Centre left: Down Rope, Pitcairn Island, South Pacific (Deborah Procter/JNCC). The introduced rat population of Pitcairn Island has successfully been eradicated in a programme funded by the UK Government. Centre right: Male Anegada rock iguana Cyclura pinguis (Glen Gerber/FFI). The Anegada rock iguana has been the subject of a successful breeding and re-introduction programme funded by FCO and FFI in collaboration with the National Parks Trust of the British Virgin Islands. Back cover: Black-browed albatross Diomedea melanophris (Richard White/JNCC). Of the global breeding population of black-browed albatross, 80 % is found on the Falkland Islands and 10% on South Georgia. Background image on front and back cover: Shoal of fish (Charles Sheppard/Warwick -
The Evolution of Ancestral and Species-Specific Adaptations in Snowfinches at the Qinghai–Tibet Plateau
The evolution of ancestral and species-specific adaptations in snowfinches at the Qinghai–Tibet Plateau Yanhua Qua,1,2, Chunhai Chenb,1, Xiumin Chena,1, Yan Haoa,c,1, Huishang Shea,c, Mengxia Wanga,c, Per G. P. Ericsond, Haiyan Lina, Tianlong Caia, Gang Songa, Chenxi Jiaa, Chunyan Chena, Hailin Zhangb, Jiang Lib, Liping Liangb, Tianyu Wub, Jinyang Zhaob, Qiang Gaob, Guojie Zhange,f,g,h, Weiwei Zhaia,g, Chi Zhangb,2, Yong E. Zhanga,c,g,i,2, and Fumin Leia,c,g,2 aKey Laboratory of Zoological Systematics and Evolution, Institute of Zoology, Chinese Academy of Sciences, 100101 Beijing, China; bBGI Genomics, BGI-Shenzhen, 518084 Shenzhen, China; cCollege of Life Science, University of Chinese Academy of Sciences, 100049 Beijing, China; dDepartment of Bioinformatics and Genetics, Swedish Museum of Natural History, SE-104 05 Stockholm, Sweden; eBGI-Shenzhen, 518083 Shenzhen, China; fState Key Laboratory of Genetic Resources and Evolution, Kunming Institute of Zoology, Chinese Academy of Sciences, 650223 Kunming, China; gCenter for Excellence in Animal Evolution and Genetics, Chinese Academy of Sciences, 650223 Kunming, China; hSection for Ecology and Evolution, Department of Biology, University of Copenhagen, DK-2100 Copenhagen, Denmark; and iChinese Institute for Brain Research, 102206 Beijing, China Edited by Nils Chr. Stenseth, University of Oslo, Oslo, Norway, and approved February 24, 2021 (received for review June 16, 2020) Species in a shared environment tend to evolve similar adapta- one of the few avian clades that have experienced an “in situ” tions under the influence of their phylogenetic context. Using radiation in extreme high-elevation environments, i.e., higher snowfinches, a monophyletic group of passerine birds (Passer- than 3,500 m above sea level (m a.s.l.) (17, 18). -
Caye Caulker Forest and Marine Reserve
Caye Caulker Forest and Marine Reserve- Integrated Management Plan 2004-2009 *** Prepared For Belize Coastal Zone Management Institute/Authority and Belize Fisheries Department By Ellen M McRae, Consultant, CZMA/I ACKNOWLEDGEMENTS 7 LIST OF TABLES 8 LIST OF MAPS 9 LIST OF ACRONYMS 10 1. INTRODUCTION 12 1.1 BACKGROUND INFORMATION 12 1.1.1 Habitat Suitability—Rationale for Area’s Selection 12 1.1.2 History of Caye Caulker’s Protected Areas 14 1.1.3 Current Status 15 1.1.4 Legislative Authority 15 1.1.5 Context 17 1.2 GENERAL INFORMATION 17 1.2.1 Purpose and Scope of Plan 17 1.2.2 Location 18 1.2.3 Access 19 1.2.4 Land Tenure and Seabed Use 19 1.2.5 Graphic Representation 20 1.2.5.1 Mapping 20 1.2.5.2 Aerial Photographic and Satellite Imagery 20 1.2.5.3 Other Remote Imagery 21 2 PHYSICAL ENVIRONMENT 21 2.1 GEOLOGY, SUBSTRATE AND BATHYMETRY 21 2.2 HYDROLOGY 22 2.3 TIDES AND CURRENTS 23 2.4 WATER QUALITY 23 2.4.1 Seawater 23 2.4.2 Groundwater and Surface Waters on the Caye 24 2.5 CLIMATE AND WEATHER 25 2.5.1 General Climate Regime 26 2.5.2 Rainfall 26 2.5.3 Extreme Weather Events 26 3 BIOLOGICAL ENVIRONMENT 29 3.1 EMERGENT SYSTEMS 29 3.1.1 Littoral Forest 29 3.1.1.1 Flora 31 3.1.1.2 Fauna 33 3.1.1.3 Commercially Harvested Species 36 3.1.1.4 Rare, Threatened and Endangered Species 37 3.1.1.5 Threats to Systems 38 3.1.2 Mangroves 39 3.1.2.1 Flora 40 3.1.2.2 Fauna 40 3.1.2.3 Commercially Harvested Species 42 3.1.2.4 Rare, Threatened and Endangered Species 43 3.1.2.5 Threats to System 44 3.2 SUBMERGED SYSTEMS 45 3.2.1 Seagrass and Other Lagoon -
The Birds of BARBADOS
BOU CHECKLIST SERIES: 24 The Birds of BARBADOS P.A. Buckley, Edward B. Massiah Maurice B. Hutt, Francine G. Buckley and Hazel F. Hutt v Contents Dedication iii Editor’s Foreword ix Preface xi Acknowledgements xv Authors’ Biographies xviii List of tables xx List of figures xx List of plates xx The Barbados Ecosystem Introduction 1 Topography 3 Geology 7 Geomorphology 7 Pedology 8 Climate, weather and winds 9 Freshwater and wetlands 13 Vegetation and floristics 14 Non-avian vertebrates 16 Freshwater fishes 16 Amphibians 17 Reptiles 17 Mammals 18 Historical synopsis 19 Prehistoric era 19 Colonial and modern eras 20 Conservation concerns 23 Avifauna 25 Historical accounts 25 Museum collectors and collections 26 Field observations 27 Glossary 27 vi Frequency of Occurrence and Numerical Abundance 28 Vagrancy 29 The Species of Barbados Birds 30 Vicariance, Dispersal and Geographical Origins 36 Historical Changes in the Barbados Avifauna 38 Extinction versus Introduction 39 The Role of Vagrancy 39 Endemism 42 Molecular Insights 42 Seabirds 45 Shorebirds 45 Land-birds 46 Habitat Limitations 46 Core Barbados Species 47 Potential Additions to the Barbados Avifauna 47 Annual North- and Southbound Migration 48 Elevational Migration 49 Recovery of Ringed Birds 49 Radar and Mist-net Studies of Migration 50 Inter-island Movements by Ostensibly Resident Land-birds 52 Austral and Trinidad & Tobago Migrants 53 Overwintering Migrants 54 Oversummering Migrants 54 Fossil and Archaeological Birds 55 Research Agenda 56 Systematic List Introduction 59 Taxonomy -
A Multidimensional Approach for Detecting Species Patterns in Malagasy Vertebrates
Colloquium A multidimensional approach for detecting species patterns in Malagasy vertebrates Anne D. Yoder*†, Link E. Olson‡§, Carol Hanley*, Kellie L. Heckman*, Rodin Rasoloarison¶, Amy L. Russell*, Julie Ranivo¶ʈ, Voahangy Soarimalala¶ʈ, K. Praveen Karanth*, Achille P. Raselimananaʈ, and Steven M. Goodman§¶ʈ *Department of Ecology and Evolutionary Biology, Yale University, P.O. Box 208105, New Haven, CT 06520; ‡University of Alaska Museum of the North, 907 Yukon Drive, Fairbanks, AK 99775; ¶De´partement de Biologie Animale, Universite´d’Antananarivo, BP 906, Antananarivo (101), Madagascar; ʈWWF Madagascar, BP 738, Antananarivo (101), Madagascar; and §Department of Zoology, Field Museum of Natural History, 1400 South Lake Shore Drive, Chicago, IL 60605 The biodiversity of Madagascar is extraordinarily distinctive, di- distinctiveness, especially in those cases where reproductive isola- verse, and endangered. It is therefore urgent that steps be taken tion cannot be determined for reasons of geographic separation. to document, describe, interpret, and protect this exceptional Thus, although the BSC by no means provides a universally biota. As a collaborative group of field and laboratory biologists, applicable recipe whereby the working biologist can diagnose a we employ a suite of methodological and analytical tools to species, and thus define its evolutionary significance, the concept investigate the vertebrate portion of Madagascar’s fauna. Given provides a practicable toolkit for embarking upon the enterprise. that species are the fundamental unit of evolution, where micro- As a collaborative group of field and lab biologists, we are and macroevolutionary forces converge to generate biological motivated by an interest in documenting, describing, understanding, diversity, a thorough understanding of species distribution and and preserving the endangered vertebrate biota of Madagascar. -
Species Boundaries and Hybrid Zones of a Recently Diverged Species Complex
Species Boundaries and Hybrid Zones of a Recently Diverged Species Complex Desiree Harpel* and Jeremy L. Marshall Department of Entomology, Kansas State University, Manhattan, KS 66503 Speciation is the biological process of one species splitting into two or more new species, and is the driving force of biodiversity on Earth. When such new species are formed, there are three different ways in which their populations can be distributed relative to each other. They can be sympatric, where species boundaries overlap one another; parapatric, where species boundaries line up along each other’s edges; or allopatric, where the species boundaries do not come in contact with each other. In the Marshall Laboratory, we are interested both in how environmental variables like temperature and moisture influence species distributions (Camp and Marshall 2000; Jensen, Camp, and Marshall 2002; Marshall and Camp 2006; Camp, Huestis, and Marshall 2007) and how closely related species interact at the boundaries of their distributions (Howard et al 2003; Traylor et al. 2008). The combination of these two interests motivated this study. Specifically, we were interested in the Allonemobius socius complex of crickets, which is comprised of four closely related species (i.e., A. socius, A. fasciatus, A. sp. nov. Tex, and A. shalontaki) whose species boundaries are unresolved in the central United States. This complex of crickets has been a model in evolutionary biology, used to study speciation (Howard et al. 2002; Marshall, Arnold, and Howard 2002; Marshall et al. 2011; Marshall and DiRienzo 2012; Marshall 2013), hybrid zones (Howard et al. 2003; Traylor et al. 2008), genetics (Huestis and Marshall 2006a; Britch et al. -
Trip Report: Mexico Yucatan Extension 13Th to 19Th March 2013 (7 Days)
Trip Report: Mexico Yucatan Extension 13th to 19th March 2013 (7 days) Mexican Sheartail by Rich Lindie Trip report compiled by tour leader: Rich Lindie RBT Yucatan Trip Report 2013 2 Royal Tern by Rich Lindie We began our first ever Rockjumper tour to Yucatan’s peninsula with a short afternoon stroll in the peaceful surroundings of the Puerto Morelos Botanical Gardens. Here, in the dry limestone forests, we found our first flocks of noisy Yucatan Jays, Yucatan Vireo, Tawny-winged and Ivory-billed Woodcreepers, Red-throated Ant Tanager and Orange Orioles, before heading to the mangroves around town. In the mangroves and adjacent wooded areas we found small bird parties containing Black-throated Green, Black Throated Blue, Cape May, Yellow-throated, Palm and Magnolia Warblers, as well as our first Grey Catbirds and Couch's Kingbirds. Not bad, considering it was an arrival day! Our first full day saw us birding along a variety of roads in the dry forest surrounding Puerto Morelos town. The majority of these roads were access tracks to some of the innumerable 'cenotes' (wells) that are found here and throughout much of the northern Yucatan. Visitors come to these cenotes for activities like swimming and zip-lining and have little impact on the forested habitats, so we enjoyed some well forested tracks and some really great birding. Among the major targets and other special birds, we successfully found a stunning male Rose-throated Tanager, pairs of Yucatan Woodpeckers, some busy Northern Bentbills, flocks of Olive-throated Parakeets and White-fronted Amazons, an endearing Ferruginous Pygmy Owl, Rose-throated Becards, Plain Chachalacas, very vocal Melodious Blackirds, Brown and Green Jays, Spot-breasted and White- bellied Wrens, Squirrel Cuckoo, Canivet's Emerald and our first female Grey-throated Chats. -
Characterization of the Sandfly Fever Naples Species Complex and Description of a New Karimabad Species Complex
Journal of General Virology (2014), 95, 292–300 DOI 10.1099/vir.0.056614-0 Short Characterization of the Sandfly fever Naples Communication species complex and description of a new Karimabad species complex (genus Phlebovirus, family Bunyaviridae) Gustavo Palacios,1 Robert B. Tesh,2 Nazir Savji,33 Amelia P. A. Travassos da Rosa,2 Hilda Guzman,2 Ana Valeria Bussetti,3 Aaloki Desai,3 Jason Ladner,1 Maripaz Sanchez-Seco4 and W. Ian Lipkin3 Correspondence 1Center for Genomic Sciences, United States Army Medical Research Institute for Infectious Gustavo Palacios Diseases, Frederick, MD, USA [email protected] 2Center for Biodefense and Emerging Infectious Diseases, Department of Pathology, University of Texas Medical Branch, Galveston, TX, USA 3Center for Infection and Immunity, Mailman School of Public Health, Columbia University, New York, NY, USA 4Centro Nacional de Microbiologia, Instituto de Salud ‘Carlos III’, Madrid, Spain Genomic and antigenic characterization of members of the Sandfly fever Naples virus (SFNV) complex reveals the presence of five clades that differ in their geographical distribution. Saint Floris and Gordil viruses, both found in Africa, form one clade; Punique, Granada and Massilia viruses, all isolated in the western Mediterranean, constitute a second; Toscana virus, a third; SFNV isolates from Italy, Cyprus, Egypt and India form a fourth; while Tehran virus and a Serbian isolate Yu 8/76, represent a fifth. Interestingly, this last clade appears not to express the second non-structural protein ORF. Karimabad virus, previously classified as a member of the SFNV complex, and Gabek Forest virus are distinct and form a new species complex (named Karimabad) in the Phlebovirus genus. -
Payne's Creek National Park Biodiversity Assessment Draft Final
Biodiversity Assessment of Payne’s Creek National Park…. Final Report 1 Report For: TIDE Payne’s Creek National Park Biodiversity Assessment Draft Final Report July, 2005 Wildtracks P.O. Box 278 Belize City Belize (00 501) 423-2032 [email protected] Wildtracks…2005 Biodiversity Assessment of Payne’s Creek National Park…. Final Report 2 Biodiversity Assessment of Payne’s Creek National Park Contents Introduction page 4 1. Background 6 2. Conservation Importance of Payne’s Creek National Park 8 3. Historical Impacts that have shaped Payne’s Creek National Park 12 4. Review of Current Situation - Areas of Concern 16 5. General Field Methods 17 6. Ecosystems of Paynes Creek 18 7. Flora of Payne’s Creek 30 8. Fauna of Paynes Creek 30 8.1. Mammals 30 8.2. Birds 35 8.3 Amphibians and Reptiles 36 8.4 Fish 38 9. Conservation Planning 40 10. Management Recommendations 55 11. Biodiversity Monitoring Recommendations 56 References 61 Appendices Appendix One: Plant Species of Payne’s Creek National Park Appendix Two: Mammal Species of Payne’s Creek National Park Appendix Three: Bird Species of Payne’s Creek National Park Appendix Four: Amphibian and Reptile Species of Payne’s Creek National Park Appendix Five: Fish Species of Payne’s Creek National Park Wildtracks…2005 Biodiversity Assessment of Payne’s Creek National Park…. Final Report 3 Maps page Map 1 Local, national and regional location of Payne’s Creek National Park 6 Map 2 Protected areas of the MMMAT 8 Map 3 Major Creeks of PCNP 9 Map 4 Hurricane Damage within Payne’s Creek 13 Map 5 Ecosystems -
Retiboletus, a New Genus for a Species-Complex in the Boletaceae Producing Retipolides1
Feddes Repertorium 113 (2002) 1–2, 30–40 Berlin, April 2002 Universität Regensburg, Fakultät für Biologie und Vorklinische Medizin, Botanisches Institut, Regensburg Clark University, Department of Biology, Sackler Science Building, Worcester, Massachusetts M. BINDER & A. BRESINSKY Retiboletus, a new genus for a species-complex in the Boletaceae producing retipolides1 With 3 Figures and one Table Summary Zusammenfassung Boletus ornatipes and B. retipes are two closely Retiboletus, eine neue Gattung für einen Arten- related species in North America, which cannot be Komplex mit Retipoliden innerhalb der Bole- differentiated by morphological and anatomical taceae characters. The 25S rDNA was partly sequenced from several isolates of B. ornatipes, B. retipes, and Boletus ornatipes und B. retipes sind zwei nahe allied species in the Boletaceae to aid identification. verwandte Arten in Nordamerika, die durch morpho- The phylogenetic analysis using maximum likeli- logische und anatomische Merkmale nicht unter- hood suggests that both species are differently dis- schieden werden können. Ein Teil der 25S rDNA tributed. In addition, our results are supported by a mehrerer Isolate von B. ornatipes, B. retipes und previous study of HELLWIG (1999), separating three verwandten Arten wurde sequenziert, um die Identifi- groups in the B. retipes/ornatipes-complex based on zierung zu unterstützen. Die phylogenetische Analyse chemotaxonomical characters. Retipolides form the unter Verwendung von Maximum Likelihood weist major pigments in presently analyzed B. ornatipes auf eine unterschiedliche geographische Verbreitung and B. retipes collections and are also detected in beider Arten hin. Zusätzlich werden unsere Ergebnis- B. flavoniger. This group of secondary metabolites se durch eine vorhergehende Studie von HELLWIG is unique in the Boletales (for distribution of (1999) unterstützt, in der chemotaxonomische Merk- pigments in Boletales see GILL & STEGLICH 1987) male zur Abgrenzung dreier Gruppen im B.