Molecular Relationships of the Israeli Shrews (Eulipotyphla: Soricidae

Total Page:16

File Type:pdf, Size:1020Kb

Molecular Relationships of the Israeli Shrews (Eulipotyphla: Soricidae Mammalia 2021; 85(1): 79–89 Original study Erez Shpirer, Michal Haddas-Sasson, Maya Spivak-Glater, Tamar Feldstein, Shai Meiri* and Dorothée Huchon* Molecular relationships of the Israeli shrews (Eulipotyphla: Soricidae) based on cytochrome b sequences https://doi.org/10.1515/mammalia-2019-0143 1 Introduction Received November 28, 2019; accepted June 12, 2020; published online August 17, 2020 Shrews (family: Soricidae) are among the most diverse and abundant mammals (Burgin et al. 2018b; Wilson and Abstract: The number of shrew species in Israel has been Reeder 2005). Among them, the Old-World genus Croci- and still is the subject of debate. In this work we used for dura, contains 198 species, more than any other mamma- the first time a molecular marker, the cytochrome b gene, to lian genus (Burgin et al. 2018a). However, being mainly investigate the number and identity of shrew species in small, nocturnal, and rather unremarkable-looking, their Israel. Our molecular results confirmed the presence of four species: Crocidura leucodon, Crocidura suaveolens guel- diversity tends to have escaped the notice of the general denstaedtii, Crocidura ramona, and Suncus etruscus. The public, environmental decision-makers, conservation C. ramona sequences were found to differ from all other agencies, and even scientists. The number of shrew species Crocidura species sequenced to date, supporting its status thought to exist in Israel is under debate (Table 1). Tristram fi as a distinct species. Whether it is conspecific with Croci- (1884) recognized ve species in the Levant and assigned dura portali (described in 1920 from Israel and usually them to the genus Sorex: Sorex araneus, Sorex tetragonurus synonymized with C. suaveolens), will require additional (currently known as S. araneus), Sorex pygmaeus (currently study. The sequences of Israeli C. suaveolens were found to known as Suncus etruscus), Sorex crassicaudus (currently be very similar to those of Iran, Turkey, and Georgia known as Suncus murinus), and Sorex fodiens (currently (i.e., C. suaveolens gueldenstaedtii), in agreement with known as Neomys fodiens). N. fodiens is a water-shrew and, previous studies. The Israeli C. leucodon sequences, how- together with S. araneus and S. murinus, it has not been ’ ever, formed a distinct clade among C. leucodon. Finally, reported again in Israel since Tristram s original work the S. etruscus sequences clustered with sequences from (Bodenheimer 1935). Thomas (1919, 1920) assigned two France, Italy, and Iran. Israeli species to the genus Crocidura: Crocidura russula judaica (Thomas 1919) and a new species that he described: Keywords: barcoding; Crocidura; cyt b; levant; suncus. Crocidura portali (Thomas 1920). Bodenheimer (1935) con- tended that three species of Crocidura occur in Israel: C. russula, Crocidura judaica, and C. portali. Later, he Shai Meiri and Dorothée Huchon: These authors contributed equally to this work. considered C. portali as a subspecies of Crocidura suaveo- lens (Bodenheimer 1958); however, no explanation was *Corresponding authors: Shai Meiri and Dorothée Huchon, School of given for this decision. Regarding Suncus, Bodenheimer Zoology, Tel Aviv University, Ramat Aviv, 69978, Tel Aviv, Israel; and (1935) indicated that the presence of S. crassicaudus is a The Steinhardt Museum of Natural History and National Research consequence of misidentification and Bodenheimer (1958) Center, Tel-Aviv University, Tel Aviv, Israel, e-mail: [email protected] (Shai Meiri); reassigned the shrew described by Tristram (1884) as [email protected] (Dorothée Huchon). https://orcid.org/ S. pygmaeus, to S. etruscus. Harrison (1963), later con- 0000-0003-3839-6330 (S. Meiri). https://orcid.org/0000-0002- tended that Thomas’s C. russula judaica (1919) is in fact a 5047-244X (D. Huchon) local synonym of Crocidura leucodon, based on morpho- Erez Shpirer, Michal Haddas-Sasson and Maya Spivak-Glater: School logical traits. He further identified C. russula and C. sua- of Zoology, Tel Aviv University, Ramat Aviv, 69978, Tel Aviv, Israel as inhabiting Israel. Tamar Feldstein: School of Zoology, Tel Aviv University, Ramat Aviv, veolens portali 69978, Tel Aviv, Israel; The Steinhardt Museum of Natural History and Molecular studies of shrews started in the 1980s. Based National Research Center, Tel-Aviv University, Tel Aviv, Israel on karyotype and allozyme comparisons, Catzeflis et al. Open Access. © 2020 Erez Shpirer et al., published by De Gruyter. This work is licensed under the Creative Commons Attribution 4.0 International License. 80 E. Shpirer et al.: Molecular relationships of Israeli shrews Table : Number and identities of Israeli shrew species. Source Shrew species inhabiting Israel Tristram () Sorex araneus, S. tetragonurusa, S. pygmaeusb, S. crassicaudusc, S. fodiensd Thomas (, )h C. russula judaica, C. portali e Bodenheimer (; ) Sorex araneus, Sorex minutus (=pygmaeus), Neomys fodiens, C. russula, C. r. judaica, C. portali e, S. tristrami f Bodenheimer () C. russula, C. judaica, C. suaveolens portali, S. etruscus Harrison ()i C. russula, C. leucodon judaica, C. suaveolens portali Mendelssohn and Yom-Tov () C. russula, C. leucodon, C. suaveolens, S. etruscus Mendelssohn and Yom-Tov (); C. leucodon judaica, C. suaveolens monacha, S. etruscus etruscus Harrison and Bates () Dolev and Perevolotsky (); C. ramona, C. leucodon, C. suaveolens, S. etruscus Meiri et al. (), this work Wilson and Reeder () C. gmelini g, C. katinka, C. ramona, C. leucodon, C. suaveolens, S. etruscus IUCN red list () C. katinka, C. ramona, C. leucodon, C. suaveolens, S. etruscus, perhaps C. gmelini Burgin et al. (b) C. ramona, C. leucodon judaica, C. gueldenstaedtii gueldenstaedtii, S. etruscus etruscus aSorex tetragonurus has been synonymized with Sorex araneus (Wilson and Reeder ). bSorex pygmaeus has been synonymized with Suncus etruscus (Wilson and Reeder ). cSorex crassicaudus has been synonymized with Suncus murinus (Wilson and Reeder ). Its presence in Israel was considered to be the result of a misidentification by Bodenheimer () and later sources. dSorex fodiens has been synonymized with Neomys fodiens (Wilson and Reeder ). eCrocidura portali has been synonymized either with C. suaveolens (Bodenheimer ) or under C. gmelinig (Wilson and Reeder ), or kept at the species rank (Kryštufek and Vohralík ). fSuncus tristrami has been synonymized with C. suaveolens (Wilson and Reeder ). gCrocidura gmelini has been synonymized with C. suaveolens (Bannikova et al. ; Burgin et al. b; Saeedzadeh et al. ). hDescription of specific specimens. iHarrison () focused on the genus Crocidura. (1985) demonstrated that the individuals called C. russula in which presents different morphological characteristics and theMiddleEastwereinfactmembersofC. suaveolens,and karyotype to those of C. leucodon and C. suaveolens. further placed the subspecies gueldenstaedtii and monacha It is thus currently considered that there are at least four within suaveolens. Harrison and Bates (1991) treated C. sua- shrew species in Israel: C. leucodon, C. suaveolens/C. guel- veolens specimens from Israel as C. suaveolens monacha. denstaedtii, C. ramona,andS. etruscus (Dolev and Per- They also noted that a smaller form is present in southern evolotsky 2004; Meiri et al. 2019; while there is debate Israel, Sinai, and Arabia, and that, consequently, a second regarding two additional species, C. portali and Crocidura subspecies may be present “If this proves to be the case the katinka Table 1, Gerrie and Kennerley 2017; Wilson and name portali is available”. Relationships among members of Reeder 2005). C. katinka was originally described in 1937 the suaveolens species complex have been found to be from a Pleistocene skull discovered in the Tabun Cave near intricate and obscured by introgression events (Bannikova Mount Carmel (Bate 1937). The species was thought to be et al. 2006; Castiglia et al. 2017; Dubey et al. 2006, 2007a; extinct until the recent discovery of skulls similar to Bate’s Ohdachi et al. 2004). C. suaveolens specimens from the C. katinka in owl pellets from Syria (Hutterer and Kock 2002). Caucasus, the Balkans, and the Levant have been either While there has not been recent evidence of C. katinka’s treated as a distinct species within the suaveolens group, presence in Israel, it is often listed as a member of the Israeli Crocidura gueldenstaedtii (Bannikova et al. 2006; Burgin fauna (Gerrie and Kennerley 2017; Wilson and Reeder 2005). et al. 2018b), or as a subspecies: C. suaveolens gueldenstaedtii Similarly, the exact status of C. portali Thomas 1920 remains (Burgin et al. 2018a; Dubey et al. 2008; Palomo et al. 2016). Of unresolved. It has been treated variously as a distinct species note, the subspecies assignment of Israeli specimens is (Kryštufek and Vohralík 2001) or suggested as a senior syn- further complicated by the use of the subspecies monacha onym of C. ramona (Burgin et al. 2018b; Kryštufek and (Harrison and Bates 1991; Mendelssohn and Yom-Tov 1999). Vohralík 2001), synonymized with C. suaveolens (Bod- In the absence of a formal revision of the C. suaveolens group, enheimer 1958) or with Crocidura gmelini (Hoffmann 1996; we refer throughout the text to such specimens as C. sua- Wilson and Reeder 2005).C.gmeliniis found in arid envi- veolens gueldenstaedtii. Ivanitskaya et al. (1996) described a ronments from Iran to Kazakhstan (Hutterer 2017) and new species of Israeli endemic shrew: Crocidura ramona, has sometimes been synonymized with C. suaveolens E. Shpirer et al.: Molecular
Recommended publications
  • Suncus Lixus – Greater Dwarf Shrew
    Suncus lixus – Greater Dwarf Shrew transformed landscapes. It occurs in a number of protected areas and can be locally common in suitable habitat, such as riverine woodland, sandveld and moist grasslands. There is no evidence to suggest a net population decline. However, we caution that molecular data, coupled with further field surveys to delimit Photograph distribution more accurately, are needed to determine whether the highveld grassland and subtropical wanted grasslands subpopulations comprise separate species. If so, both species will need to be reassessed as high rates of grassland habitat loss in both regions may qualify one or both species for a threatened status. Key interventions include protected area expansion of moist grassland and riverine woodland habitats, as well as providing incentives for landowners to sustain natural Regional Red List status (2016) Least Concern* vegetation around wetlands and keep livestock or wildlife at ecological carrying capacity. National Red List status (2004) Data Deficient Regional population effects: There is a disjunct Reasons for change Non-genuine change: distribution between populations in the assessment region Change in risk and the rest of its range. This species is also a poor tolerance disperser. Thus there is not suspected to be a significant Global Red List status (2008) Least Concern rescue effect. TOPS listing (NEMBA) None CITES listing None Distribution Throughout the global range of the Greater Dwarf Shrew Endemic No there are only a few scattered records (Skinner & *Watch-list Data Chimimba 2005). However, it is a widespread species that ranges through East Africa, Central Africa and southern As the colloquial name indicates, although this is Africa.
    [Show full text]
  • Solenodon Genome Reveals Convergent Evolution of Venom in Eulipotyphlan Mammals
    Solenodon genome reveals convergent evolution of venom in eulipotyphlan mammals Nicholas R. Casewella,1, Daniel Petrasb,c, Daren C. Cardd,e,f, Vivek Suranseg, Alexis M. Mychajliwh,i,j, David Richardsk,l, Ivan Koludarovm, Laura-Oana Albulescua, Julien Slagboomn, Benjamin-Florian Hempelb, Neville M. Ngumk, Rosalind J. Kennerleyo, Jorge L. Broccap, Gareth Whiteleya, Robert A. Harrisona, Fiona M. S. Boltona, Jordan Debonoq, Freek J. Vonkr, Jessica Alföldis, Jeremy Johnsons, Elinor K. Karlssons,t, Kerstin Lindblad-Tohs,u, Ian R. Mellork, Roderich D. Süssmuthb, Bryan G. Fryq, Sanjaya Kuruppuv,w, Wayne C. Hodgsonv, Jeroen Kooln, Todd A. Castoed, Ian Barnesx, Kartik Sunagarg, Eivind A. B. Undheimy,z,aa, and Samuel T. Turveybb aCentre for Snakebite Research & Interventions, Liverpool School of Tropical Medicine, Pembroke Place, L3 5QA Liverpool, United Kingdom; bInstitut für Chemie, Technische Universität Berlin, 10623 Berlin, Germany; cCollaborative Mass Spectrometry Innovation Center, University of California, San Diego, La Jolla, CA 92093; dDepartment of Biology, University of Texas at Arlington, Arlington, TX 76010; eDepartment of Organismic and Evolutionary Biology, Harvard University, Cambridge, MA 02138; fMuseum of Comparative Zoology, Harvard University, Cambridge, MA 02138; gEvolutionary Venomics Lab, Centre for Ecological Sciences, Indian Institute of Science, 560012 Bangalore, India; hDepartment of Biology, Stanford University, Stanford, CA 94305; iDepartment of Rancho La Brea, Natural History Museum of Los Angeles County, Los Angeles,
    [Show full text]
  • Convergent Evolution of Olfactory and Thermoregulatory Capacities in Small Amphibious Mammals
    Convergent evolution of olfactory and thermoregulatory capacities in small amphibious mammals Quentin Martineza,1, Julien Clavelb,c, Jacob A. Esselstynd,e, Anang S. Achmadif, Camille Grohég,h, Nelly Piroti,j, and Pierre-Henri Fabrea,k aInstitut des Sciences de l’Évolution de Montpellier (ISEM), CNRS, Institut de recherche pour le développement (IRD), Université de Montpellier (UM), UMR 5554, 34095 Montpellier, France; bDepartment of Life Sciences, The Natural History Museum, SW7 5DB London, United Kingdom; cUniv. Lyon Laboratoire d’Ecologie des Hydrosystèmes Naturels et Anthropisés, UMR CNRS 5023, Université Claude Bernard Lyon 1, École Nationale des Travaux Publics de l’État (ENTPE), F‐69622 Villeurbanne, Cedex, France; dMuseum of Natural Science, Louisiana State University, Baton Rouge, LA 70803; eDepartment of Biological Sciences, Louisiana State University, Baton Rouge, LA 70803; fMuseum Zoologicum Bogoriense, Research Center for Biology, Indonesian Institute of Sciences (LIPI), 16911 Cibinong, Indonesia; gDivision of Paleontology, American Museum of Natural History, New York, NY 10024; hLaboratoire Paléontologie Évolution Paléoécosystèmes Paléoprimatologie (PALEVOPRIM, UMR 7262, CNRS-Institut écologie et environnement [INEE]), Université de Poitiers, 86073 Poitiers, Cedex 9, France; iInstitut de Recherche en Cancérologie de Montpellier (IRCM), INSERM, U1194 UM, Institut du Cancer de Montpellier (ICM), F-34298 Montpellier, Cedex 5, France; jRéseau d’Histologie Expérimentale de Montpellier, UMS3426 CNRS-US009 INSERM-UM, 34298 Montpellier, France; and kMammal Section, Department of Life Sciences, The Natural History Museum, SW7 5DB London, United Kingdom Edited by David B. Wake, University of California, Berkeley, CA, and approved February 28, 2020 (received for review October 11, 2019) Olfaction and thermoregulation are key functions for mammals. The partitioning has been documented in histological, airflow dynamic, former is critical to feeding, mating, and predator avoidance behaviors, and performance test studies (9–13).
    [Show full text]
  • The Terrestrial Mammals of Mozambique: Integrating Dispersed Biodiversity Data
    Bothalia - African Biodiversity & Conservation ISSN: (Online) 2311-9284, (Print) 0006-8241 Page 1 of 23 Original Research The terrestrial mammals of Mozambique: Integrating dispersed biodiversity data Authors: Background: The most comprehensive synopsis of the mammal fauna of Mozambique was 1,2,3 Isabel Q. Neves published in 1976, listing 190 species of terrestrial mammals. Up-to-date knowledge of the Maria da Luz Mathias2,3 Cristiane Bastos-Silveira1 country’s biodiversity is crucial to establish the baseline information needed for conservation and management actions. Affiliations: 1Museu Nacional de História Objectives: The aim of this article was to present a list of terrestrial mammal species reported Natural e da Ciência, from Mozambique, based on primary occurrence data. Universidade de Lisboa, Portugal Method: We integrated existing knowledge, from dispersed sources of biodiversity data: the Global Biodiversity Information Facility portal, natural history collections, survey reports and 2Departamento de Biologia literature. Data were updated and manually curated. However, none of the specimens upon Animal, Faculdade de which occurrences are based was directly observed. To partly overcome this impediment, we Ciências da Universidade de Lisboa, Portugal developed a species selection process for specimen data. This process produced the country’s species checklist and an additional list of species with questionable occurrence in the country. 3Centre for Environmental and Marine Studies, Results: From the digital and non-digital sources, we compiled more than 17 000 records. The Faculdade de Ciências da data integrated resulted in a total of 217 mammal species (representing 14 orders, 39 families Universidade de Lisboa, and 133 genera) with supported occurrence in Mozambique and 23 species with questionable Portugal reported occurrence in the country.
    [Show full text]
  • Chapter 15 the Mammals of Angola
    Chapter 15 The Mammals of Angola Pedro Beja, Pedro Vaz Pinto, Luís Veríssimo, Elena Bersacola, Ezequiel Fabiano, Jorge M. Palmeirim, Ara Monadjem, Pedro Monterroso, Magdalena S. Svensson, and Peter John Taylor Abstract Scientific investigations on the mammals of Angola started over 150 years ago, but information remains scarce and scattered, with only one recent published account. Here we provide a synthesis of the mammals of Angola based on a thorough survey of primary and grey literature, as well as recent unpublished records. We present a short history of mammal research, and provide brief information on each species known to occur in the country. Particular attention is given to endemic and near endemic species. We also provide a zoogeographic outline and information on the conservation of Angolan mammals. We found confirmed records for 291 native species, most of which from the orders Rodentia (85), Chiroptera (73), Carnivora (39), and Cetartiodactyla (33). There is a large number of endemic and near endemic species, most of which are rodents or bats. The large diversity of species is favoured by the wide P. Beja (*) CIBIO-InBIO, Centro de Investigação em Biodiversidade e Recursos Genéticos, Universidade do Porto, Vairão, Portugal CEABN-InBio, Centro de Ecologia Aplicada “Professor Baeta Neves”, Instituto Superior de Agronomia, Universidade de Lisboa, Lisboa, Portugal e-mail: [email protected] P. Vaz Pinto Fundação Kissama, Luanda, Angola CIBIO-InBIO, Centro de Investigação em Biodiversidade e Recursos Genéticos, Universidade do Porto, Campus de Vairão, Vairão, Portugal e-mail: [email protected] L. Veríssimo Fundação Kissama, Luanda, Angola e-mail: [email protected] E.
    [Show full text]
  • Molecular Phylogenetics of Shrews (Mammalia: Soricidae) Reveal Timing of Transcontinental Colonizations
    Molecular Phylogenetics and Evolution 44 (2007) 126–137 www.elsevier.com/locate/ympev Molecular phylogenetics of shrews (Mammalia: Soricidae) reveal timing of transcontinental colonizations Sylvain Dubey a,*, Nicolas Salamin a, Satoshi D. Ohdachi b, Patrick Barrie`re c, Peter Vogel a a Department of Ecology and Evolution, University of Lausanne, CH-1015 Lausanne, Switzerland b Institute of Low Temperature Science, Hokkaido University, Sapporo 060-0819, Japan c Laboratoire Ecobio UMR 6553, CNRS, Universite´ de Rennes 1, Station Biologique, F-35380, Paimpont, France Received 4 July 2006; revised 8 November 2006; accepted 7 December 2006 Available online 19 December 2006 Abstract We sequenced 2167 base pairs (bp) of mitochondrial DNA cytochrome b and 16S, and 1390 bp of nuclear genes BRCA1 and ApoB in shrews taxa (Eulipotyphla, family Soricidae). The aim was to study the relationships at higher taxonomic levels within this family, and in particular the position of difficult clades such as Anourosorex and Myosorex. The data confirmed two monophyletic subfamilies, Soric- inae and Crocidurinae. In the former, the tribes Anourosoricini, Blarinini, Nectogalini, Notiosoricini, and Soricini were supported. The latter was formed by the tribes Myosoricini and Crocidurini. The genus Suncus appeared to be paraphyletic and included Sylvisorex.We further suggest a biogeographical hypothesis, which shows that North America was colonized by three independent lineages of Soricinae during middle Miocene. Our hypothesis is congruent with the first fossil records for these taxa. Using molecular dating, the first exchang- es between Africa and Eurasia occurred during the middle Miocene. The last one took place in the Late Miocene, with the dispersion of the genus Crocidura through the old world.
    [Show full text]
  • Establishing of Genetic Analyses Methods of Feces from the Water Shrew, Chimarrogale Platycephalus (Erinaceidae, Eulipotyphla)
    Central JSM Biology Bringing Excellence in Open Access Research Article *Corresponding author Koji Tojo, Department of Biology, Faculty of Science, Shinshu University, Asahi 3-1-1, Matsumoto, Nagano 390- Establishing of Genetic 8621, Japan, Tel: 81-263-37-3341; Email: Submitted: 11 April 2017 Analyses Methods of Feces Accepted: 28 April 2017 Published: 30 April 2017 from the Water Shrew, ISSN: 2475-9392 Copyright Chimarrogale platycephalus © 2017 Tojo et al. OPEN ACCESS (Erinaceidae, Eulipotyphla) Keywords • River ecosystem 1 2 1 Tomohiro Sekiya , Hidetaka Ichiyanagi , and Koji Tojo * • Top predator 1Department of Biology, Faculty of Science, Shinshu University, Japan • Non-damaged sampling 2Faculty of Advanced Science and Technology, Kumamoto University, Japan • Genetic structure • Analysis method development Abstract The Japanese endemic water shrew, Chimarrogale platycephalus is a small mammal adapted to mountain streams, and is the apex predator within its hierarchy preying on fish and aquatic benthos. Therefore, it is considered to be an extremely important species in the conservation of mountain stream ecosystems. Currently, a reduction in the number of habitats available and/or a decrease in populations, indicates that it is being threatened in various areas of Japan. They have been listed as being in critical status on the red list. With respect to the conservation of such endangered species, the accumulation of basic knowledge such as population structure and an understanding of genetic structure for each population are a very important. However, the accumulated ecological knowledge and knowledge of population genetics gathered to date is still at a poor level because this water shrew is relatively difficult to capture alive.
    [Show full text]
  • Talpa Europaea), Captured in Central Poland in August 2013
    www.nature.com/scientificreports OPEN Isolation and partial characterization of a highly divergent lineage of hantavirus Received: 25 October 2015 Accepted: 18 January 2016 from the European mole (Talpa Published: 19 February 2016 europaea) Se Hun Gu1, Mukesh Kumar1, Beata Sikorska2, Janusz Hejduk3, Janusz Markowski3, Marcin Markowski4, Paweł P. Liberski2 & Richard Yanagihara1 Genetically distinct hantaviruses have been identified in five species of fossorial moles (order Eulipotyphla, family Talpidae) from Eurasia and North America. Here, we report the isolation and partial characterization of a highly divergent hantavirus, named Nova virus (NVAV), from lung tissue of a European mole (Talpa europaea), captured in central Poland in August 2013. Typical hantavirus-like particles, measuring 80–120 nm in diameter, were found in NVAV-infected Vero E6 cells by transmission electron microscopy. Whole-genome sequences of the isolate, designated NVAV strain Te34, were identical to that amplified from the original lung tissue, and phylogenetic analysis of the full-length L, M and S segments, using maximum-likelihood and Bayesian methods, showed that NVAV was most closely related to hantaviruses harbored by insectivorous bats, consistent with an ancient evolutionary origin. Infant Swiss Webster mice, inoculated with NVAV by the intraperitoneal route, developed weight loss and hyperactivity, beginning at 16 days, followed by hind-limb paralysis and death. High NVAV RNA copies were detected in lung, liver, kidney, spleen and brain by quantitative real-time RT-PCR. Neuropathological examination showed astrocytic and microglial activation and neuronal loss. The first mole-borne hantavirus isolate will facilitate long-overdue studies on its infectivity and pathogenic potential in humans.
    [Show full text]
  • List of 28 Orders, 129 Families, 598 Genera and 1121 Species in Mammal Images Library 31 December 2013
    What the American Society of Mammalogists has in the images library LIST OF 28 ORDERS, 129 FAMILIES, 598 GENERA AND 1121 SPECIES IN MAMMAL IMAGES LIBRARY 31 DECEMBER 2013 AFROSORICIDA (5 genera, 5 species) – golden moles and tenrecs CHRYSOCHLORIDAE - golden moles Chrysospalax villosus - Rough-haired Golden Mole TENRECIDAE - tenrecs 1. Echinops telfairi - Lesser Hedgehog Tenrec 2. Hemicentetes semispinosus – Lowland Streaked Tenrec 3. Microgale dobsoni - Dobson’s Shrew Tenrec 4. Tenrec ecaudatus – Tailless Tenrec ARTIODACTYLA (83 genera, 142 species) – paraxonic (mostly even-toed) ungulates ANTILOCAPRIDAE - pronghorns Antilocapra americana - Pronghorn BOVIDAE (46 genera) - cattle, sheep, goats, and antelopes 1. Addax nasomaculatus - Addax 2. Aepyceros melampus - Impala 3. Alcelaphus buselaphus - Hartebeest 4. Alcelaphus caama – Red Hartebeest 5. Ammotragus lervia - Barbary Sheep 6. Antidorcas marsupialis - Springbok 7. Antilope cervicapra – Blackbuck 8. Beatragus hunter – Hunter’s Hartebeest 9. Bison bison - American Bison 10. Bison bonasus - European Bison 11. Bos frontalis - Gaur 12. Bos javanicus - Banteng 13. Bos taurus -Auroch 14. Boselaphus tragocamelus - Nilgai 15. Bubalus bubalis - Water Buffalo 16. Bubalus depressicornis - Anoa 17. Bubalus quarlesi - Mountain Anoa 18. Budorcas taxicolor - Takin 19. Capra caucasica - Tur 20. Capra falconeri - Markhor 21. Capra hircus - Goat 22. Capra nubiana – Nubian Ibex 23. Capra pyrenaica – Spanish Ibex 24. Capricornis crispus – Japanese Serow 25. Cephalophus jentinki - Jentink's Duiker 26. Cephalophus natalensis – Red Duiker 1 What the American Society of Mammalogists has in the images library 27. Cephalophus niger – Black Duiker 28. Cephalophus rufilatus – Red-flanked Duiker 29. Cephalophus silvicultor - Yellow-backed Duiker 30. Cephalophus zebra - Zebra Duiker 31. Connochaetes gnou - Black Wildebeest 32. Connochaetes taurinus - Blue Wildebeest 33. Damaliscus korrigum – Topi 34.
    [Show full text]
  • Redescription of the Malaysian Mole As to Be a True Species, Euroscaptor Malayana (Insectivora, Talpidae)
    国立科博専報,(45): 65–74, 2008年3月28日 Mem. Natl. Mus. Nat. Sci., Tokyo, (45): 65–74, March 28, 2008 Redescription of the Malaysian Mole as to be a True Species, Euroscaptor malayana (Insectivora, Talpidae) Shin-ichiro Kawada1, Masatoshi Yasuda2, Akio Shinohara3 and Boo Liat Lim4 1 Department of Zoology, National Museum of Nature and Science, 3–23–1, Hyakunin-cho, Shinjuku, Tokyo 169–0073, Japan E-mail: [email protected] 2 Forest Zoology Laboratory, Kyushu Research Center, Forestry and Forest Products Research Institute, 4–11–16 Kurokami, Kumamoto, Kumamoto 860–0862, Japan 3 Department of Bio-resources, Division of Biotechnology, Frontier Science Research Center, University of Miyazaki, Miyazaki 889–1692, Japan 4 Department of Wildlife and National Parks, Kuala Lumpur 43200, Malaysia Abstract. The Malaysian mole is far isolated population of genus Euroscaptor, described in 1940. Since the original description, the Malaysian mole has been placed as subspecies of Hi- malayan or Thailand species or synonym of the other species, and it has never been treated as a in- dependent species. Recent results of the morphological, karyological and molecular phylogenetic researches assigned that the Malaysian mole is clearly distinct from other species of Euroscaptor. In this study, detail morphological characters of the Malaysian mole are redescribed. With the dis- cussion of the history of the tea plantation of the mole’s habitats in Peninsular Malaysia, the Malaysian mole is considered as a native species with distinct characters from other species of genus Euroscaptor. Key words : Euroscaptor malayana, morphology, description, distinct species. specimens of moles (Kawada et al., 2003). They Introduction were identified as Chasen’s Malaysian mole.
    [Show full text]
  • Facts About Washington's Moles
    Moles Though moles are the bane of many lawn owners, they make a significant positive contribution to the health of the landscape. Their extensive tunneling and mound building mixes soil nutrients and improves soil aeration and drainage. Moles also eat many lawn and garden pests, including cranefly larvae and slugs. Moles spend almost their entire lives underground and have Figure 1. Moles have broad front feet, the toes of much in common with pocket gophers—small weak eyes, which terminate in stout claws faced outward for small hips for turning around in tight places, and velvety fur digging. The Pacific or coast mole is shown here. that is reversible to make backing up easy. Moles also have (From Christensen and Larrison, Mammals of Washington: broad front feet, the toes of which terminate in stout claws A Pictorial Introduction.) faced outward for digging (Fig. 1). (The Chehalis Indian word for mole translates into “hands turned backward.”) However, moles are predators of worms and grubs, while gophers are herbivores. (See comparison of their scull shapes in Figure 2.) Three species of moles occur in the Washington. Curiously, moles occur on only a few of the islands in Puget Sound. At a total length of 8 to 9 inches, the slate black Townsend mole (Scapanus townsendii), is the largest mole species in North America. It occurs in meadows, fields, pastures, lawns, and golf courses west of the Cascade mountains. The Pacific mole (Scapanus orarius, Fig. 1), also known as the coast mole, is similar in appearance to the Townsend mole, and ranges from 6 to 7 inches in total length.
    [Show full text]
  • Comparative Phylogeography As an Integrative Approach to Understand Human and Other Mammal
    Comparative phylogeography as an integrative approach to understand human and other mammal distributions in Europe Luis Oxala García Rodríguez A thesis submitted in partial fulfilment of the requirements of Bournemouth University for the degree of Doctor of Philosophy June 2019 This page intentionally left blank II This copy of the thesis has been supplied on condition that anyone who consults it is understood to recognise that its copyright rests with its author and due acknowledgement must always be made of the use of any material contained in, or derived from, this thesis. III Comparative phylogeography as an integrative approach to understand human and other mammal distributions in Europe. Oxala García Rodríguez Abstract Phylogeography refers to the phylogenetic analysis of organisms in the context of their geographical distribution. The analytical methods build phylogenetic trees and networks from haplotypes in order to investigate the history of the organisms. Phylogeographic studies have revealed the importance of climatic oscillations and the role of the Last Glacial Maximum (27,500 to 16,000 years ago) with the formation of refugia where distinct haplotypes originate in Europe. The population expansions and contractions into these refugial areas have driven the evolution of different lineages but the similarities and differences between species are still poorly understood. This thesis aims to gain a better understanding of the phylogeographical processes of different mammals’ species in Europe. This was done by collecting published mitochondrial DNA control region sequences of 29 different species and analysing them individually and comparatively. This research presents a standardised way of understanding phylogeography from the mitochondrial DNA perspective to improve the comparison of studies in the field.
    [Show full text]