The Role of Mustelids in the Transmission of Sarcocystis Spp. Using Cattle As Intermediate Hosts
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MINNESOTA MUSTELIDS Young
By Blane Klemek MINNESOTA MUSTELIDS Young Naturalists the Slinky,Stinky Weasel family ave you ever heard anyone call somebody a weasel? If you have, then you might think Hthat being called a weasel is bad. But weasels are good hunters, and they are cunning, curious, strong, and fierce. Weasels and their relatives are mammals. They belong to the order Carnivora (meat eaters) and the family Mustelidae, also known as the weasel family or mustelids. Mustela means weasel in Latin. With 65 species, mustelids are the largest family of carnivores in the world. Eight mustelid species currently make their homes in Minnesota: short-tailed weasel, long-tailed weasel, least weasel, mink, American marten, OTTERS BY DANIEL J. COX fisher, river otter, and American badger. Minnesota Conservation Volunteer May–June 2003 n e MARY CLAY, DEMBINSKY t PHOTO ASSOCIATES r mammals a WEASELS flexible m Here are two TOM AND PAT LEESON specialized mustelid feet. b One is for climb- ou can recognize a ing and the other for hort-tailed weasels (Mustela erminea), long- The long-tailed weasel d most mustelids g digging. Can you tell tailed weasels (M. frenata), and least weasels eats the most varied e food of all weasels. It by their tubelike r which is which? (M. nivalis) live throughout Minnesota. In also lives in the widest Ybodies and their short Stheir northern range, including Minnesota, weasels variety of habitats and legs. Some, such as badgers, hunting. Otters and minks turn white in winter. In autumn, white hairs begin climates across North are heavy and chunky. Some, are excellent swimmers that hunt to replace their brown summer coat. -
Species Assessment for the Humboldt Marten (Martes Americana Humboldtensis)
Arcata Fish and Wildlife Office Species Assessment for the Humboldt Marten (Martes americana humboldtensis) R. Hamlin, L. Roberts, G. Schmidt, K. Brubaker and R. Bosch Photo credit: Six Rivers National Forest Endangered Species Program U.S. Fish and Wildlife Service Arcata Fish and Wildlife Office 1655 Heindon Road Arcata, California 95521 (707) 822-7201 www.fws.gov/arcata September 2010 i The suggested citation for this report is: Hamlin, R., L. Roberts, G. Schmidt, K. Brubaker and R. Bosch 2010. Species assessment for the Humboldt marten (Martes americana humboldtensis). U.S. Fish and Wildlife Service, Arcata Fish and Wildlife Office, Arcata, California. 34 + iv pp. ii Table of Contents INTRODUCTION ................................................................................................................ 1 BIOLOGICAL INFORMATION .......................................................................................... 1 Species Description ................................................................................................... 1 Taxonomy.................................................................................................................. 1 Life History ............................................................................................................... 4 Reproduction .................................................................................................. 5 Diet ................................................................................................................ 5 Home Range -
Baylisascariasis
Baylisascariasis Importance Baylisascaris procyonis, an intestinal nematode of raccoons, can cause severe neurological and ocular signs when its larvae migrate in humans, other mammals and birds. Although clinical cases seem to be rare in people, most reported cases have been Last Updated: December 2013 serious and difficult to treat. Severe disease has also been reported in other mammals and birds. Other species of Baylisascaris, particularly B. melis of European badgers and B. columnaris of skunks, can also cause neural and ocular larva migrans in animals, and are potential human pathogens. Etiology Baylisascariasis is caused by intestinal nematodes (family Ascarididae) in the genus Baylisascaris. The three most pathogenic species are Baylisascaris procyonis, B. melis and B. columnaris. The larvae of these three species can cause extensive damage in intermediate/paratenic hosts: they migrate extensively, continue to grow considerably within these hosts, and sometimes invade the CNS or the eye. Their larvae are very similar in appearance, which can make it very difficult to identify the causative agent in some clinical cases. Other species of Baylisascaris including B. transfuga, B. devos, B. schroeder and B. tasmaniensis may also cause larva migrans. In general, the latter organisms are smaller and tend to invade the muscles, intestines and mesentery; however, B. transfuga has been shown to cause ocular and neural larva migrans in some animals. Species Affected Raccoons (Procyon lotor) are usually the definitive hosts for B. procyonis. Other species known to serve as definitive hosts include dogs (which can be both definitive and intermediate hosts) and kinkajous. Coatimundis and ringtails, which are closely related to kinkajous, might also be able to harbor B. -
Phylogeographic and Diversification Patterns of the White-Nosed Coati
Molecular Phylogenetics and Evolution 131 (2019) 149–163 Contents lists available at ScienceDirect Molecular Phylogenetics and Evolution journal homepage: www.elsevier.com/locate/ympev Phylogeographic and diversification patterns of the white-nosed coati (Nasua narica): Evidence for south-to-north colonization of North America T ⁎ Sergio F. Nigenda-Moralesa, , Matthew E. Gompperb, David Valenzuela-Galvánc, Anna R. Layd, Karen M. Kapheime, Christine Hassf, Susan D. Booth-Binczikg, Gerald A. Binczikh, Ben T. Hirschi, Maureen McColginj, John L. Koprowskik, Katherine McFaddenl,1, Robert K. Waynea, ⁎ Klaus-Peter Koepflim,n, a Department of Ecology & Evolutionary Biology, University of California, Los Angeles, Los Angeles, CA 90095, USA b School of Natural Resources, University of Missouri, Columbia, MO 65211, USA c Departamento de Ecología Evolutiva, Centro de Investigación en Biodiversidad y Conservación, Universidad Autónoma del Estado de Morelos, Cuernavaca, Morelos 62209, Mexico d Department of Pathology and Laboratory Medicine, David Geffen School of Medicine, University of California, Los Angeles, Los Angeles, CA 90095, USA e Department of Biology, Utah State University, Logan, UT 84322, USA f Wild Mountain Echoes, Vail, AZ 85641, USA g New York State Department of Environmental Conservation, Albany, NY 12233, USA h Amsterdam, New York 12010, USA i Zoology and Ecology, College of Science and Engineering, James Cook University, Townsville, QLD 4811, Australia j Department of Biological Sciences, Purdue University, West Lafayette, IN 47907, USA k School of Natural Resources and the Environment, The University of Arizona, Tucson, AZ 85721, USA l College of Agriculture, Forestry and Life Sciences, Clemson University, Clemson, SC 29634, USA m Smithsonian Conservation Biology Institute, National Zoological Park, Washington, D.C. -
Mammalia, Carnivora) from the Blancan of Florida
THREE NEW PROCYONIDS (MAMMALIA, CARNIVORA) FROM THE BLANCAN OF FLORIDA Laura G. Emmert1,2 and Rachel A. Short1,3 ABSTRACT Fossils of the mammalian family Procyonidae are relatively abundant at many fossil localities in Florida. Analysis of specimens from 16 late Blancan localities from peninsular Florida demonstrate the presence of two species of Procyon and one species of Nasua. Procyon gipsoni sp. nov. is slightly larger than extant Procyon lotor and is distinguished by five dental characters including a lack of a crista between the para- cone and hypocone on the P4, absence of a basin at the lingual intersection of the hypocone and protocone on the P4, and a reduced metaconule on the M1. Procyon megalokolos sp. nov. is significantly larger than extant P. lotor and is characterized primarily by morphology of the postcrania, such as an expanded and posteriorly rotated humeral medial epicondyle, more prominent tibial tuberosity, and more pronounced radioulnar notch. Other than larger size, the dentition of P. megalokolos falls within the range of variation observed in extant P. lotor, suggesting that it may be an early member of the P. lotor lineage. Nasua mast- odonta sp. nov. has a unique accessory cusp on the m1 as well as multiple morphological differences in the dentition and postcrania, such as close appression of the trigonid of the m1 and a less expanded medial epicondyle of the humerus. We also synonymize Procyon rexroadensis, formerly the only known Blancan Procyon species in North America, with P. lotor due to a lack of distinct dental morphological features observed in specimens from its type locality in Kansas. -
Mammalia, Felidae, Canidae, and Mustelidae) from the Earliest Hemphillian Screw Bean Local Fauna, Big Bend National Park, Brewster County, Texas
Chapter 9 Carnivora (Mammalia, Felidae, Canidae, and Mustelidae) From the Earliest Hemphillian Screw Bean Local Fauna, Big Bend National Park, Brewster County, Texas MARGARET SKEELS STEVENS1 AND JAMES BOWIE STEVENS2 ABSTRACT The Screw Bean Local Fauna is the earliest Hemphillian fauna of the southwestern United States. The fossil remains occur in all parts of the informal Banta Shut-in formation, nowhere very fossiliferous. The formation is informally subdivided on the basis of stepwise ®ning and slowing deposition into Lower (least fossiliferous), Middle, and Red clay members, succeeded by the valley-®lling, Bench member (most fossiliferous). Identi®ed Carnivora include: cf. Pseudaelurus sp. and cf. Nimravides catocopis, medium and large extinct cats; Epicyon haydeni, large borophagine dog; Vulpes sp., small fox; cf. Eucyon sp., extinct primitive canine; Buisnictis chisoensis, n. sp., extinct skunk; and Martes sp., marten. B. chisoensis may be allied with Spilogale on the basis of mastoid specialization. Some of the Screw Bean taxa are late survivors of the Clarendonian Chronofauna, which extended through most or all of the early Hemphillian. The early early Hemphillian, late Miocene age attributed to the fauna is based on the Screw Bean assemblage postdating or- eodont and predating North American edentate occurrences, on lack of de®ning Hemphillian taxa, and on stage of evolution. INTRODUCTION southwestern North America, and ®ll a pa- leobiogeographic gap. In Trans-Pecos Texas NAMING AND IMPORTANCE OF THE SCREW and adjacent Chihuahua and Coahuila, Mex- BEAN LOCAL FAUNA: The name ``Screw Bean ico, they provide an age determination for Local Fauna,'' Banta Shut-in formation, postvolcanic (,18±20 Ma; Henry et al., Trans-Pecos Texas (®g. -
Mammalian Predators Appropriating the Refugia of Their Prey
Mamm Res (2015) 60:285–292 DOI 10.1007/s13364-015-0236-y ORIGINAL PAPER When prey provide more than food: mammalian predators appropriating the refugia of their prey William J. Zielinski 1 Received: 30 September 2014 /Accepted: 20 July 2015 /Published online: 31 July 2015 # Mammal Research Institute, Polish Academy of Sciences, Białowieża, Poland (outside the USA) 2015 Abstract Some mammalian predators acquire both food and predators) may play disproportionately important roles in their shelter from their prey, by eating them and using the refugia communities. the prey construct. I searched the literature for examples of predators that exhibit this behavior and summarize their taxo- Keywords Predator–prey . Dens . Herbivore . Behavior . nomic affiliations, relative sizes, and distributions. I hypothe- Habitat . Resting . Foraging sized that size ratios of species involved in this dynamic would be near 1.0, and that most of these interactions would occur at intermediate and high latitudes. Seventeen species of Introduction Carnivorans exploited at least 23 species of herbivores as food and for their refugia. Most of them (76.4 %) were in the Mammals require food and most require shelter, either to pro- Mustelidae; several small species of canids and a few tect them from predators or from thermal stress. Carnivorous herpestids were exceptions. Surprisingly, the average mammals are unique in that they subsist on mobile food predator/prey weight ratio was 10.51, but few species of pred- sources which, particularly if these sources are vertebrates, ators were more than ten times the weight of the prey whose may build their own refuges to help regulate their body tem- refugia they exploit. -
Ecology of the European Badger (Meles Meles) in the Western Carpathian Mountains: a Review
Wildl. Biol. Pract., 2016 Aug 12(3): 36-50 doi:10.2461/wbp.2016.eb.4 REVIEW Ecology of the European Badger (Meles meles) in the Western Carpathian Mountains: A Review R.W. Mysłajek1,*, S. Nowak2, A. Rożen3, K. Kurek2, M. Figura2 & B. Jędrzejewska4 1 Institute of Genetics and Biotechnology, Faculty of Biology, University of Warsaw, Pawińskiego 5a, 02-106 Warszawa, Poland. 2 Association for Nature “Wolf”, Twardorzeczka 229, 34-324 Lipowa, Poland. 3 Institute of Environmental Sciences, Jagiellonian University, Gronostajowa 7, 30-387 Kraków, Poland. 4 Mammal Research Institute, Polish Academy of Sciences, Waszkiewicza 1c, 17-230 Białowieża, Poland. * Corresponding author email: [email protected]. Keywords Abstract Altitudinal Gradient; This article summarizes the results of studies on the ecology of the European Diet Composition; badger (Meles meles) conducted in the Western Carpathians (S Poland) Meles meles; from 2002 to 2010. Badgers inhabiting the Carpathians use excavated setts Mustelidae; (53%), caves and rock crevices (43%), and burrows under human-made Sett Utilization; constructions (4%) as permanent shelters. Excavated setts are located up Spatial Organization. to 640 m a.s.l., but shelters in caves and crevices can be found as high as 1,050 m a.s.l. Badger setts are mostly located on slopes with southern, eastern or western exposure. Within their territories, ranging from 3.35 to 8.45 km2 (MCP100%), badgers may possess 1-12 setts. Family groups are small (mean = 2.3 badgers), population density is low (2.2 badgers/10 km2), as is reproduction (0.57 young/year/10 km2). Hunting by humans is the main mortality factor (0.37 badger/year/10 km2). -
The 2008 IUCN Red Listings of the World's Small Carnivores
The 2008 IUCN red listings of the world’s small carnivores Jan SCHIPPER¹*, Michael HOFFMANN¹, J. W. DUCKWORTH² and James CONROY³ Abstract The global conservation status of all the world’s mammals was assessed for the 2008 IUCN Red List. Of the 165 species of small carni- vores recognised during the process, two are Extinct (EX), one is Critically Endangered (CR), ten are Endangered (EN), 22 Vulnerable (VU), ten Near Threatened (NT), 15 Data Deficient (DD) and 105 Least Concern. Thus, 22% of the species for which a category was assigned other than DD were assessed as threatened (i.e. CR, EN or VU), as against 25% for mammals as a whole. Among otters, seven (58%) of the 12 species for which a category was assigned were identified as threatened. This reflects their attachment to rivers and other waterbodies, and heavy trade-driven hunting. The IUCN Red List species accounts are living documents to be updated annually, and further information to refine listings is welcome. Keywords: conservation status, Critically Endangered, Data Deficient, Endangered, Extinct, global threat listing, Least Concern, Near Threatened, Vulnerable Introduction dae (skunks and stink-badgers; 12), Mustelidae (weasels, martens, otters, badgers and allies; 59), Nandiniidae (African Palm-civet The IUCN Red List of Threatened Species is the most authorita- Nandinia binotata; one), Prionodontidae ([Asian] linsangs; two), tive resource currently available on the conservation status of the Procyonidae (raccoons, coatis and allies; 14), and Viverridae (civ- world’s biodiversity. In recent years, the overall number of spe- ets, including oyans [= ‘African linsangs’]; 33). The data reported cies included on the IUCN Red List has grown rapidly, largely as on herein are freely and publicly available via the 2008 IUCN Red a result of ongoing global assessment initiatives that have helped List website (www.iucnredlist.org/mammals). -
Monitoring of Forest Mammals Listed in the Annexes IV and V of the Habitat Directive (Except Bats)
Monitoring biodiversity in Luxembourg: what is left to be done? 22 November 2017 Monitoring of forest mammals listed in the Annexes IV and V of the Habitat Directive (except bats) Distribution and evolution since 2010: Marc Moes GEODATA • Hazel dormouse, • Wildcat, Xavier Mestdagh • Pine marten, Lionel L’Hoste • Polecat. LIST Hazel Dormouse Muscardinus avellanarius 2 Hazel Dormouse Muscardinus avellanarius Methodology • Identification of “potentially” suitable habitats • Random and stratified sampling design 90 squares (1x1 Km) selected Looking for “summer” nest in 4 “favourable” sites/square during Oct/Nov Mainly brambles, shrub covered area and forest edge • Triennal sampling procedure 3 Hazel Dormouse Muscardinus avellanarius Results • Since 2010: 102 squares were surveyed • 2017 sampling is still in progress • From 2013 to 2015: repeated survey for some squares 1st passage: 1124 sites investigated so far! 4 Hazel Dormouse Muscardinus avellanarius Results: Sites level (1st passage) 1st passage 2010-2012 2013-2015 2016-2018 Number of sites 596 336 192 surveyed ( + + ) = 1124 sites Number of favourable sites 294 269 149 surveyed Number of favourable sites 108 169 83 with proof of presence Average= 51% 5 Hazel Dormouse Muscardinus avellanarius Results: Squares level - analysis based on the 1st passage 1st passage 2010-2012 2013-2015 2016-2018 2010/ 2013/ 2012 2015 Number of squares ✔ ✔ surveyed with at least one 96 78 28 favourable site ✔ ✘ Number of squares ✘ ✔ surveyed with at least one ✘ ✘ favourable site 70 66 26 AND with proof -
Molecular Phylogeny and Taxonomy of the Genus Mustela
Mammal Study 33: 25–33 (2008) © the Mammalogical Society of Japan Molecular phylogeny and taxonomy of the genus Mustela (Mustelidae, Carnivora), inferred from mitochondrial DNA sequences: New perspectives on phylogenetic status of the back-striped weasel and American mink Naoko Kurose1, Alexei V. Abramov2 and Ryuichi Masuda3,* 1 Department of Biological Sciences, Faculty of Science, Kanagawa University, Kanagawa 259-1293, Japan 2 Zoological Institute, Russian Academy of Sciences, Saint-Petersburg 199034, Russia 3 Creative Research Initiative “Sousei”, Hokkaido University, Sapporo 060-0810, Japan Abstract. To further understand the phylogenetic relationships among the mustelid genus Mustela, we newly determined nucleotide sequences of the mitochondrial 12S rRNA gene from 11 Eurasian species of Mustela, including the domestic ferret and the American mink. Phylogenetic relationships inferred from the 12S rRNA sequences were similar to those based on previously reported mitochondrial cytochrome b data. Combined analyses of the two genes demonstrated that species of Mustela were divided into two primary clades, named “the small weasel group” and “the large weasel group”, and others. The Japanese weasel (Mustela itatsi) formerly classified as a subspecies of the Siberian weasel (M. sibirica), was genetically well-differentiated from M. sibirica, and the two species clustered with each other. The European mink (M. lutreola) was closely related to “the ferret group” (M. furo, M. putorius, and M. eversmanii). Both the American mink of North America and the back-striped weasel (M. strigidorsa) of Southeast Asia were more closely related to each other than to other species of Mustela, indicating that M. strigidorsa originated from an independent lineage that differs from other Eurasian weasels. -
Environmental Impact Report
ENVIRONMENTAL IMPACT REPORT SUPPLEMENT TO THE REPORT ON THE ENVIROMENTAL IMPACT OF THE “CONSTRUCTION OF THE KARCINO-SARBIA WIND FARM (17 WIND TURBINES)” OF 2003 Name of the undertaking: KARCINO-SARBIA Wind Farm (under construction) Contractor: AOS Agencja Ochrony Środowiska Sp. z o.o. based in Koszalin Arch. No. 52/OŚ/OOS/06 Koszalin, September 2006 Team: Bogdan Gutkowski, M.Sc.Eng.– Expert for Environmental Impact Assessment Appointed by the Governor of the West Pomerania Province Marek Ziółkowski, M.Sc. Eng. – Environmental Protection Expert of the Ministry of Environmental Protection, Natural Resources and Forestry; Environmental Protection Consultant Dagmara Czajkowska, M.Sc. Eng. – Specialist for Environmental Impact Assessment, Specialist for Environmental Protection and Management Ewa Reszka, M.Sc. – Specialist for the Protection of Water and Land and Protection against Impact of Waste Damian Kołek, M.Sc.Eng. – Environmental Protection Specialist 2 CONTENTS I. INTRODUCTION .................................................................................................................. 5 II. GENERAL INFORMATION ABOUT THE PROJECT ..................................................... 9 1. Location and adjacent facilities....................................................................................................... 9 2. Modifications to the project .......................................................................................................... 10 3. Technical description of the project ..............................................................................................