Toxigenic Corynebacterium Ulcerans Isolated from a Wild Bird (Ural Owl
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Revision of the Mole Genus Mogera (Mammalia: Lipotyphla: Talpidae)
Systematics and Biodiversity 5 (2): 223–240 Issued 25 May 2007 doi:10.1017/S1477200006002271 Printed in the United Kingdom C The Natural History Museum Shin-ichiro Kawada1, 6 , Akio Shinohara2 , Shuji Revision of the mole genus Mogera Kobayashi3 , Masashi Harada4 ,Sen-ichiOda1 & (Mammalia: Lipotyphla: Talpidae) Liang-Kong Lin5 ∗ 1Laboratory of Animal from Taiwan Management and Resources, Graduate School of Bio-Agricultural Sciences, Nagoya University, Nagoya, Aichi 464-8601, Japan Abstract We surveyed the central mountains and southeastern region of Taiwan 2Department of Bio-resources, and collected 11 specimens of a new species of mole, genus Mogera. The specimens Division of Biotechnology, were characterized by a small body size, dark fur, a protruding snout, and a long Frontier Science Research Center, University of Miyazaki tail; these characteristics are distinct from those of the Taiwanese lowland mole, 5200, Kihara, Kiyotake, M. insularis (Swinhoe, 1862). A phylogenetic study of morphological, karyological Miyazaki 889-1692, Japan 3Department of Asian Studies, and molecular characters revealed that Taiwanese moles should be classified as two Chukyo Woman’s University, distinctive species: M. insularis from the northern and western lowlands and the new Yokone-cho, Aichi 474-0011, species from the central mountains and the east and south of Taiwan. The skull of Japan 4Laboratory Animal Center, the new species was slender and delicate compared to that of M. insularis. Although Osaka City University Graduate the karyotypes of two species were identical, the genetic distance between them School of Medical School, Osaka, Osaka 545-8585, Japan was sufficient to justify considering each as a separate species. Here, we present a 5Laboratory of Wildlife Ecology, detailed specific description of the new species and discuss the relationship between Department of Life Science, this species and M. -
ID 2 | Issue No: 4.1 | Issue Date: 29.10.14 | Page: 1 of 24 © Crown Copyright 2014 Identification of Corynebacterium Species
UK Standards for Microbiology Investigations Identification of Corynebacterium species Issued by the Standards Unit, Microbiology Services, PHE Bacteriology – Identification | ID 2 | Issue no: 4.1 | Issue date: 29.10.14 | Page: 1 of 24 © Crown copyright 2014 Identification of Corynebacterium species Acknowledgments UK Standards for Microbiology Investigations (SMIs) are developed under the auspices of Public Health England (PHE) working in partnership with the National Health Service (NHS), Public Health Wales and with the professional organisations whose logos are displayed below and listed on the website https://www.gov.uk/uk- standards-for-microbiology-investigations-smi-quality-and-consistency-in-clinical- laboratories. SMIs are developed, reviewed and revised by various working groups which are overseen by a steering committee (see https://www.gov.uk/government/groups/standards-for-microbiology-investigations- steering-committee). The contributions of many individuals in clinical, specialist and reference laboratories who have provided information and comments during the development of this document are acknowledged. We are grateful to the Medical Editors for editing the medical content. For further information please contact us at: Standards Unit Microbiology Services Public Health England 61 Colindale Avenue London NW9 5EQ E-mail: [email protected] Website: https://www.gov.uk/uk-standards-for-microbiology-investigations-smi-quality- and-consistency-in-clinical-laboratories UK Standards for Microbiology Investigations are produced in association with: Logos correct at time of publishing. Bacteriology – Identification | ID 2 | Issue no: 4.1 | Issue date: 29.10.14 | Page: 2 of 24 UK Standards for Microbiology Investigations | Issued by the Standards Unit, Public Health England Identification of Corynebacterium species Contents ACKNOWLEDGMENTS ......................................................................................................... -
• the Following Pages Have Some Identification Markers for Each of the Bush Warblers Found in India
©www.ogaclicks.com • The following pages have some identification markers for each of the Bush Warblers found in India • To know more on these birds you can visit www.ogaclicks.com/warbler • If you are interested in coming on any of my tours or workshops please share your email id. I will keep you updated • Mail me at [email protected] • You can also call me on (91)9840119078 , (91) 9445219078 (91) 6369815812 Abberant Bush Warbler Identification Tips - Nominate Abberant Bush Warbler : Cettia flavolivacea : Resident of Himalayas from North Central India (East of Himachal Pradesh and Uttarakhand) Crown is plain brown Pale yellowish supercilium Bill is dark horn- Dark eyestripe brown, pale pink Upperparts are yellowish base of lower Brown Ear-coverts olive-green mandible Narrow whitish eyering Throat is unspotted whitish Breast is darker olive Dull olive-yellow undertail-coverts Buffish or olive- yellow Underparts Flanks are darker olive Legs are yellow to dusky pinkish-brown ©www.ogaclicks.com Reference : www.HBW.com Brown Bush Warbler Identification Tips - Nominate Brown Bush Warbler : Bradypterus luteoventris : Resident of North East India (from Darjeeling, in West Bengal, Eastwards to Arunachal Pradesh and Nagaland) Crown is plain brown Deep buff supercilium upper mandible is Brown eyestripe blackish-brown, lower mandible Brown Ear-coverts fleshy-yellow with blackish-brown tip Upperparts are plain brown Throat is unspotted whitish Breast is Brown Belly is unspotted whitish Deep buff undertail-coverts Deep buff Flanks Legs are flesh-brown -
Bird Diversity in Northern Myanmar and Conservation Implications
ZOOLOGICAL RESEARCH Bird diversity in northern Myanmar and conservation implications Ming-Xia Zhang1,2, Myint Kyaw3, Guo-Gang Li1,2, Jiang-Bo Zhao4, Xiang-Le Zeng5, Kyaw Swa3, Rui-Chang Quan1,2,* 1 Southeast Asia Biodiversity Research Institute, Chinese Academy of Sciences, Yezin Nay Pyi Taw 05282, Myanmar 2 Center for Integrative Conservation, Xishuangbanna Tropical Botanical Garden, Chinese Academy of Sciences, Mengla Yunnan 666303, China 3 Hponkan Razi Wildlife Sanctuary Offices, Putao Kachin 01051, Myanmar 4 Science Communication and Training Department, Xishuangbanna Tropical Botanical Garden, Chinese Academy of Sciences, Mengla Yunnan 666303, China 5 Yingjiang Bird Watching Society, Yingjiang Yunnan 679300, China ABSTRACT Since the 1990s, several bird surveys had been carried out in the Putao area (Rappole et al, 2011). Under the leadership of We conducted four bird biodiversity surveys in the the Nature and Wildlife Conservation Division (NWCD) of the Putao area of northern Myanmar from 2015 to 2017. Myanmar Forestry Ministry, two expeditions were launched in Combined with anecdotal information collected 1997–1998 (Aung & Oo, 1999) and 2001–2009 (Rappole et al., between 2012 and 2015, we recorded 319 bird 2011), providing the most detailed inventory of local avian species, including two species (Arborophila mandellii diversity thus far. 1 and Lanius sphenocercus) previously unrecorded in Between December 2015 and May 2017, the Southeast Asia Myanmar. Bulbuls (Pycnonotidae), babblers (Timaliidae), Biodiversity Research Institute, Chinese Academy of Sciences pigeons and doves (Columbidae), and pheasants (CAS-SEABRI), Forest Research Institute (FRI) of Myanmar, and partridges (Phasianidae) were the most Hponkan Razi Wildlife Sanctuary (HPWS), and Hkakabo Razi abundant groups of birds recorded. -
Disaggregation of Bird Families Listed on Cms Appendix Ii
Convention on the Conservation of Migratory Species of Wild Animals 2nd Meeting of the Sessional Committee of the CMS Scientific Council (ScC-SC2) Bonn, Germany, 10 – 14 July 2017 UNEP/CMS/ScC-SC2/Inf.3 DISAGGREGATION OF BIRD FAMILIES LISTED ON CMS APPENDIX II (Prepared by the Appointed Councillors for Birds) Summary: The first meeting of the Sessional Committee of the Scientific Council identified the adoption of a new standard reference for avian taxonomy as an opportunity to disaggregate the higher-level taxa listed on Appendix II and to identify those that are considered to be migratory species and that have an unfavourable conservation status. The current paper presents an initial analysis of the higher-level disaggregation using the Handbook of the Birds of the World/BirdLife International Illustrated Checklist of the Birds of the World Volumes 1 and 2 taxonomy, and identifies the challenges in completing the analysis to identify all of the migratory species and the corresponding Range States. The document has been prepared by the COP Appointed Scientific Councilors for Birds. This is a supplementary paper to COP document UNEP/CMS/COP12/Doc.25.3 on Taxonomy and Nomenclature UNEP/CMS/ScC-Sc2/Inf.3 DISAGGREGATION OF BIRD FAMILIES LISTED ON CMS APPENDIX II 1. Through Resolution 11.19, the Conference of Parties adopted as the standard reference for bird taxonomy and nomenclature for Non-Passerine species the Handbook of the Birds of the World/BirdLife International Illustrated Checklist of the Birds of the World, Volume 1: Non-Passerines, by Josep del Hoyo and Nigel J. Collar (2014); 2. -
Passeriformes: Cisticolidae: Orthotomus) from the Mekong Floodplain of Cambodia
FORKTAIL 29 (2013): 1–14 http://zoobank.org/urn:lsid:zoobank.org:pub:F1778491-B6EE-4225-95B2-2843B32CBA08 A new species of lowland tailorbird (Passeriformes: Cisticolidae: Orthotomus) from the Mekong floodplain of Cambodia S. P. MAHOOD, A. J. I. JOHN, J. C. EAMES, C. H. OLIVEROS, R. G. MOYLE, HONG CHAMNAN, C. M. POOLE, H. NIELSEN & F. H. SHELDON Based on distinctive morphological and vocal characters we describe a new species of lowland tailorbird Orthotomus from dense humid lowland scrub in the floodplain of the Mekong, Tonle Sap and Bassac rivers of Cambodia. Genetic data place it in the O. atrogularis–O. ruficeps–O. sepium clade. All data suggest that the new species is most closely related to O. atrogularis, from which genetic differences are apparently of a level usually associated with subspecies. However the two taxa behave as biological species, existing locally in sympatry and even exceptionally in syntopy, without apparent hybridisation. The species is known so far from a small area within which its habitat is declining in area and quality. However, although birds are found in a number of small habitat fragments (including within the city limits of Phnom Penh), most individuals probably occupy one large contiguous area of habitat in the Tonle Sap floodplain. We therefore recommend it is classified as Near Threatened on the IUCN Red List. The new species is abundant in suitable habitat within its small range. Further work is required to understand more clearly the distribution and ecology of this species and in particular its evolutionary relationship with O. atrogularis. INTRODUCTION and its major tributaries (Duckworth et al. -
Bird List Column A: We Should Encounter (At Least a 90% Chance) Column B: May Encounter (About a 50%-90% Chance) Column C: Possible, but Unlikely (20% – 50% Chance)
THE PHILIPPINES Prospective Bird List Column A: we should encounter (at least a 90% chance) Column B: may encounter (about a 50%-90% chance) Column C: possible, but unlikely (20% – 50% chance) A B C Philippine Megapode (Tabon Scrubfowl) X Megapodius cumingii King Quail X Coturnix chinensis Red Junglefowl X Gallus gallus Palawan Peacock-Pheasant X Polyplectron emphanum Wandering Whistling Duck X Dendrocygna arcuata Eastern Spot-billed Duck X Anas zonorhyncha Philippine Duck X Anas luzonica Garganey X Anas querquedula Little Egret X Egretta garzetta Chinese Egret X Egretta eulophotes Eastern Reef Egret X Egretta sacra Grey Heron X Ardea cinerea Great-billed Heron X Ardea sumatrana Purple Heron X Ardea purpurea Great Egret X Ardea alba Intermediate Egret X Ardea intermedia Cattle Egret X Ardea ibis Javan Pond-Heron X Ardeola speciosa Striated Heron X Butorides striatus Yellow Bittern X Ixobrychus sinensis Von Schrenck's Bittern X Ixobrychus eurhythmus Cinnamon Bittern X Ixobrychus cinnamomeus Black Bittern X Ixobrychus flavicollis Black-crowned Night-Heron X Nycticorax nycticorax Western Osprey X Pandion haliaetus Oriental Honey-Buzzard X Pernis ptilorhynchus Barred Honey-Buzzard X Pernis celebensis Black-winged Kite X Elanus caeruleus Brahminy Kite X Haliastur indus White-bellied Sea-Eagle X Haliaeetus leucogaster Grey-headed Fish-Eagle X Ichthyophaga ichthyaetus ________________________________________________________________________________________________________ WINGS ● 1643 N. Alvernon Way Ste. 109 ● Tucson ● AZ ● 85712 ● www.wingsbirds.com -
Ewa Żurawska-Seta
Tom 59 2010 Numer 1–2 (286–287) Strony 111–123 Ewa Żurawska-sEta Katedra Zoologii Uniwersytet Technologiczno-Przyrodniczy A. Kordeckiego 20, 85-225 Bydgoszcz E-mail: [email protected] kretowate talpidae — ROZMieSZCZeNie oraZ klaSyfikaCja w świetle badań geNetycznyCh i MorfologicznyCh wStęp podział systematyczny ssaków podlega zaproponowanej przez wilson’a i rEEdEr’a ciągłym zmianom, głównie za sprawą dyna- (2005) wyodrębnione zostały nowe rzędy: micznie rozwijających się w ostatnich latach erinaceomorpha, do którego zaliczono je- badań genetycznych. w klasyfikacji owado- żowate erinaceidae oraz Soricomorpha, w żernych insectivora zaszły istotne zmiany. którym znalazły się kretowate talpidae i ry- według tradycyjnej klasyfikacji fenetycznej jówkowate Soricidae. do ostatniego z wymie- kret Talpa europaea linnaeus, 1758, zali- nionych rzędów zaliczono ponadto almiko- czany był do rodziny kretowatych talpidae wate Solenodontidae oraz wymarłą rodzinę i rzędu owadożernych insectivora. do tego Nesophontidae (wcześniej obie te rodziny samego rzędu należały również występujące również zaliczano do insectivora), z zastrze- w polsce jeże i ryjówki. według klasyfikacji żeniem, że oczekiwane są dalsze zmiany. klaSyfikaCja kretowatyCh talpidae rodzina talpidae obejmuje 3 podrodziny: świetnym pływakiem, ponieważ większość Scalopinae, talpinae i Uropsilinae. podrodzi- pożywienia zdobywa na powierzchni wody na Scalopinae podzielona jest na 2 plemiona, oraz w toni wodnej. jest do tego doskona- 5 rodzajów i 7 gatunków (tabela 1). krety z le przystosowany, ponieważ posiada błony tej podrodziny często nazywane są „kretami z pławne między palcami kończyn tylnych. Nowego świata”, ponieważ większość gatun- Ma również długi ogon, stanowiący 75–81% ków występuje w Stanach Zjednoczonych, długości całego ciała, który spełnia rolę ma- północnym Meksyku i w południowej części gazynu tłuszczu, wykorzystywanego głównie kanady. -
Comparative Morphology of the Penis and Clitoris in Four Species of Moles
RESEARCH ARTICLE Comparative Morphology of the Penis and Clitoris in Four Species of Moles (Talpidae) ADRIANE WATKINS SINCLAIR1∗, STEPHEN GLICKMAN2, KENNETH CATANIA3, AKIO SHINOHARA4, LAWRENCE BASKIN1, 1 AND GERALD R. CUNHA 1Department of Urology, University of California San Francisco, San Francisco, California 2Departments of Psychology and Integrative Biology, University of California, Berkeley, California 3Department of Biological Sciences, Vanderbilt University, Nashville, Tennessee 4Frontier Science Research Center, University of Miyazaki, Kihara, Japan ABSTRACT The penile and clitoral anatomy of four species of Talpid moles (broad-footed, star-nosed, hairy- tailed, and Japanese shrew moles) were investigated to define penile and clitoral anatomy and to examine the relationship of the clitoral anatomy with the presence or absence of ovotestes. The ovotestis contains ovarian tissue and glandular tissue resembling fetal testicular tissue and can produce androgens. The ovotestis is present in star-nosed and hairy-tailed moles, but not in broad-footed and Japanese shrew moles. Using histology, three-dimensional reconstruction, and morphometric analysis, sexual dimorphism was examined with regard to a nine feature mascu- line trait score that included perineal appendage length (prepuce), anogenital distance, and pres- ence/absence of bone. The presence/absence of ovotestes was discordant in all four mole species for sex differentiation features. For many sex differentiation features, discordance with ovotestes was observed in at least one mole species. The degree of concordance with ovotestes was highest for hairy-tailed moles and lowest for broad-footed moles. In relationship to phylogenetic clade, sex differentiation features also did not correlate with the similarity/divergence of the features and presence/absence of ovotestes. -
Attachment 2 a Risk Profile of Dairy Products in Australia Appendices 1
2-06 22 March 2006 Attachment 2 A Risk Profile of Dairy Products in Australia Appendices 1-6 DRAFT ASSESSMENT REPORT PROPOSAL P296 PRIMARY PRODUCTION AND PROCESSING STANDARD FOR DAIRY RISK PROFILE OF DAIRY PRODUCTS IN AUSTRALIA VII APPENDICES 1. IMPACT OF PROCESSING ON DAIRY PRODUCT SAFETY 1.1 Milk and cream 1.2 Cheese 1.3 Dried milk powders 1.4 Infant formulae 1.5 Concentrated milk products 1.6 Butter and butter products 1.7 Ice cream 1.8 Cultured and fermented milk products 1.9 Dairy desserts 1.10 Dairy based dips 1.11 Casein, why products and other functional milk derivatives 1.12 Colostrum 2. EPIDEMIOLOGICAL INFORMATION ON OUTBREAKS OF FOODBORNE ILLNESS ASSOCIATED WITH DAIRY PRODUCTS 3. OCCURRENCE OF MICROBIOLOGICAL HAZARDS ASSOCIATED WITH DAIRY PRODUCTS 4. CONSUMPTION FIGURES OF DAIRY PRODUCTS FOR AUSTRALIAN CONSUMERS 5. HAZARD IDENTIFICATION/HAZARD CHARACTERISATION OF PATHOGENS 5.1 Aeromonas Spp. 5.2 Bacillus cereus 5.3 Brucella Spp. 5.4 Campylobacter jejuni/coli 5.5 Clostridium Spp. 5.6 Coxiella burnetii 5.7 Corynebacterium ulcerans 5.8 Cryptosporidium 5.9 Enterobacter sakazakii 5.10 Pathogenic Escherichia coli 5.11 Listeria monocytogenes 5.12 Mycobacterium bovis 5.13 Mycobacterium avium subsp. paratuberculosis 5.14 Salmonella Spp. 5.15 Shigella Spp. 5.16 Staphylococcus aureus 5.17 Streptococcus Spp. 5.18 Yersinia enterocolitica 6. PREVIOUS RISK ASSESSMENTS ON MICROBIOLOGICAL PATHOGENS IN DAIRY PRODUCTS 7. CHEMICAL RISK ASSESSMENT FRAMEWORK 8. REGULATORY FRAMEWORK FOR AGRICULTURAL AND VETERINARY CHEMICALS 9. MAXIMUM RESIDUE LIMITS 10. CHEMICAL RESIDUES MEASURED IN BOVINE DAIRY PRODUCTS 11. REGISTERED ANTIMICROBIAL AGENTS 12. -
An Evolutionary View on the Japanese Talpids Based on Nucleotide Sequences
Mammal Study 30: S19–S24 (2005) © the Mammalogical Society of Japan An evolutionary view on the Japanese talpids based on nucleotide sequences Akio Shinohara1,*, Kevin L. Campbell2 and Hitoshi Suzuki3 1 Department of Bio-resources, Division of Biotechnology, Frontier Science Research Center, University of Miyazaki, Miyazaki 889-1692, Japan 2 Department of Zoology, University of Manitoba, Winnipeg, Manitoba, R3T 2N2, Canada 3 Graduate School of Environmental Earth Science, Hokkaido University, Hokkaido 060-0810, Japan Abstract. Japanese talpid moles exhibit a remarkable degree of species richness and geographic complexity, and as such, have attracted much research interest by morphologists, cytogeneticists, and molecular phylogeneticists. However, a consensus hypothesis pertaining to the evolutionary history and biogeography of this group remains elusive. Recent phylogenetic studies utilizing nucleotide sequences have provided reasonably consistent branching patterns for Japanese talpids, but have generally suffered from a lack of closely related South-East Asian species for sound biogeographic interpretations. As an initial step in achieving this goal, we constructed phylogenetic trees using publicly accessible mitochondrial and nuclear sequences from seven Japanese taxa, and those of related insular and continental species for which nucleotide data is available. The resultant trees support the view that four lineages (Euroscaptor mizura, Mogera tokuade species group [M. tokudae and M. etigo], M. imaizumii, and M. wogura) migrated separately, and in this order, from the continental Asian mainland to Japan. The close relationship of M. tokudae and M. etigo suggests these lineages diverged recently through a vicariant event between Sado Island and Echigo plain. The origin of the two endemic lineages of Japanese shrew-moles, Urotrichus talpoides and Dymecodon pilirostris, remains ambiguous. -
An Update of Wallacels Zoogeographic Regions of the World
REPORTS To examine the temporal profile of ChC produc- specification of a distinct, and probably the last, 3. G. A. Ascoli et al., Nat. Rev. Neurosci. 9, 557 (2008). tion and their correlation to laminar deployment, cohort in this lineage—the ChCs. 4. J. Szentágothai, M. A. Arbib, Neurosci. Res. Program Bull. 12, 305 (1974). we injected a single pulse of BrdU into pregnant A recent study demonstrated that progeni- CreER 5. P. Somogyi, Brain Res. 136, 345 (1977). Nkx2.1 ;Ai9 females at successive days be- tors below the ventral wall of the lateral ventricle 6. L. Sussel, O. Marin, S. Kimura, J. L. Rubenstein, tween E15 and P1 to label mitotic progenitors, (i.e., VGZ) of human infants give rise to a medial Development 126, 3359 (1999). each paired with a pulse of tamoxifen at E17 to migratory stream destined to the ventral mPFC 7. S. J. Butt et al., Neuron 59, 722 (2008). + 18 8. H. Taniguchi et al., Neuron 71, 995 (2011). label NKX2.1 cells (Fig. 3A). We first quanti- ( ). Despite species differences in the develop- 9. L. Madisen et al., Nat. Neurosci. 13, 133 (2010). fied the fraction of L2 ChCs (identified by mor- mental timing of corticogenesis, this study and 10. J. Szabadics et al., Science 311, 233 (2006). + phology) in mPFC that were also BrdU+. Although our findings raise the possibility that the NKX2.1 11. A. Woodruff, Q. Xu, S. A. Anderson, R. Yuste, Front. there was ChC production by E15, consistent progenitors in VGZ and their extended neurogenesis Neural Circuits 3, 15 (2009).