European Bison
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Species Fact Sheet: Roe Deer (Capreolus Capreolus) [email protected] 023 8023 7874
Species Fact Sheet: Roe Deer (Capreolus capreolus) [email protected] www.mammal.org.uk 023 8023 7874 Quick Facts Recognition: Small deer, reddish brown in summer, grey in winter. Distinctive black moustache stripe, white chin. Appears tail-less with white/ cream rump patch which is especially conspicuous when its hairs are puffed out when the deer is alarmed. Males have short antlers, erect with no more than three points. Size: Average height at shoulder 60-75cm. Males slightly larger. Weight: Adults 10—25kg Life Span: The maximum age in the wild is 16 years, but most live 7 years.. Distribution & Habitat Roe deer are widespread throughout Scotland and much of England, and in many areas they are abundant. They are increasing their range. They are spreading southwards from their Scottish refuge, and northwards and westwards from the reintroduced populations, but are not yet but are not yet established in most of the Midlands and Kent. They have never occurred in Ireland. They are generally found in open mixed, coniferous or purely deciduous woodland, particularly at edges between woodland and open habitats. Roe deer feed throughout the 24 hours, but are most active at dusk and dawn. General Ecology Behaviour Roe deer exist solitary or in small groups, with larger groups typically feeding together during the winter. At exceptionally high densities, herds of 15 or more roe deer can be seen in open fields during the spring and summer. Males are seasonally territorial, from March to August. Young females usually establish ranges close to their mothers; juvenile males are forced to disperse further afield. -
Bison Literature Review Biology
Bison Literature Review Ben Baldwin and Kody Menghini The purpose of this document is to compare the biology, ecology and basic behavior of cattle and bison for a management context. The literature related to bison is extensive and broad in scope covering the full continuum of domestication. The information incorporated in this review is focused on bison in more or less “wild” or free-ranging situations i.e.., not bison in close confinement or commercial production. While the scientific literature provides a solid basis for much of the basic biology and ecology, there is a wealth of information related to management implications and guidelines that is not captured. Much of the current information related to bison management, behavior (especially social organization) and practical knowledge is available through local experts, current research that has yet to be published, or popular literature. These sources, while harder to find and usually more localized in scope, provide crucial information pertaining to bison management. Biology Diet Composition Bison evolutional history provides the basis for many of the differences between bison and cattle. Bison due to their evolution in North America ecosystems are better adapted than introduced cattle, especially in grass dominated systems such as prairies. Many of these areas historically had relatively low quality forage. Bison are capable of more efficient digestion of low-quality forage then cattle (Peden et al. 1973; Plumb and Dodd 1993). Peden et al. (1973) also found that bison could consume greater quantities of low protein and poor quality forage then cattle. Bison and cattle have significant dietary overlap, but there are slight differences as well. -
For Vector-Borne Pathogens
Parasitology Research (2019) 118:2735–2740 https://doi.org/10.1007/s00436-019-06412-9 PROTOZOOLOGY - SHORT COMMUNICATION Screening of wild ruminants from the Kaunertal and other alpine regions of Tyrol (Austria) for vector-borne pathogens Martina Messner1 & Feodora Natalie Kayikci1 & Bita Shahi-Barogh1 & Josef Harl2 & Christian Messner3 & Hans-Peter Fuehrer1 Received: 25 June 2019 /Accepted: 25 July 2019 /Published online: 3 August 2019 # The Author(s) 2019 Abstract Knowledge about vector-borne pathogens important for human and veterinary medicine in wild ruminants in Tyrol (Austria) is scarce. Blood samples from Alpine ibex (Capra ibex; n = 44), Alpine chamois (Rupicapra rupicapra; n= 21), roe deer (Capreolus capreolus; n=18) and red deer (Cervus elaphus; n = 6) were collected over a period of 4 years (2015–2018) in four regions in North Tyrol, with a primary focus on the Kaunertal. Blood spots on filter paper were tested for the presence of DNA of vector-borne pathogens (Anaplasmataceae,Piroplasmida,Rickettsia and filarioid helminths). Anaplasma phagocytophilum and Babesia capreoli were detected in two of 89 (2.3%) blood samples. Rickettsia spp., Theileria spp. and filarioid helminths were not documented. One Alpine chamois was positive for A. phagocytophilum and B. capreoli. Moreover, an ibex from the Kaunertal region was positive for A. phagocytophilum. While the ibex was a kid less than 1 year old, the chamois was an adult individual. Further research is recommended to evaluate effects of climate change on infection rates of North Tyrolean wild ruminants by these pathogens and the distribution of their vectors. Keywords Anaplasma phagocytophilum . Austria . Babesia capreoli . Chamois . -
Last Interglacial (MIS 5) Ungulate Assemblage from the Central Iberian Peninsula: the Camino Cave (Pinilla Del Valle, Madrid, Spain)
Palaeogeography, Palaeoclimatology, Palaeoecology 374 (2013) 327–337 Contents lists available at SciVerse ScienceDirect Palaeogeography, Palaeoclimatology, Palaeoecology journal homepage: www.elsevier.com/locate/palaeo Last Interglacial (MIS 5) ungulate assemblage from the Central Iberian Peninsula: The Camino Cave (Pinilla del Valle, Madrid, Spain) Diego J. Álvarez-Lao a,⁎, Juan L. Arsuaga b,c, Enrique Baquedano d, Alfredo Pérez-González e a Área de Paleontología, Departamento de Geología, Universidad de Oviedo, C/Jesús Arias de Velasco, s/n, 33005 Oviedo, Spain b Centro Mixto UCM-ISCIII de Evolución y Comportamiento Humanos, C/Sinesio Delgado, 4, 28029 Madrid, Spain c Departamento de Paleontología, Facultad de Ciencias Geológicas, Universidad Complutense de Madrid, Ciudad Universitaria, 28040 Madrid, Spain d Museo Arqueológico Regional de la Comunidad de Madrid, Plaza de las Bernardas, s/n, 28801-Alcalá de Henares, Madrid, Spain e Centro Nacional de Investigación sobre la Evolución Humana (CENIEH), Paseo Sierra de Atapuerca, s/n, 09002 Burgos, Spain article info abstract Article history: The fossil assemblage from the Camino Cave, corresponding to the late MIS 5, constitutes a key record to un- Received 2 November 2012 derstand the faunal composition of Central Iberia during the last Interglacial. Moreover, the largest Iberian Received in revised form 21 January 2013 fallow deer fossil population was recovered here. Other ungulate species present at this assemblage include Accepted 31 January 2013 red deer, roe deer, aurochs, chamois, wild boar, horse and steppe rhinoceros; carnivores and Neanderthals Available online 13 February 2013 are also present. The origin of the accumulation has been interpreted as a hyena den. Abundant fallow deer skeletal elements allowed to statistically compare the Camino Cave fossils with other Keywords: Early Late Pleistocene Pleistocene and Holocene European populations. -
IATTC-94-01 the Tuna Fishery, Stocks, and Ecosystem in the Eastern
INTER-AMERICAN TROPICAL TUNA COMMISSION 94TH MEETING Bilbao, Spain 22-26 July 2019 DOCUMENT IATTC-94-01 REPORT ON THE TUNA FISHERY, STOCKS, AND ECOSYSTEM IN THE EASTERN PACIFIC OCEAN IN 2018 A. The fishery for tunas and billfishes in the eastern Pacific Ocean ....................................................... 3 B. Yellowfin tuna ................................................................................................................................... 50 C. Skipjack tuna ..................................................................................................................................... 58 D. Bigeye tuna ........................................................................................................................................ 64 E. Pacific bluefin tuna ............................................................................................................................ 72 F. Albacore tuna .................................................................................................................................... 76 G. Swordfish ........................................................................................................................................... 82 H. Blue marlin ........................................................................................................................................ 85 I. Striped marlin .................................................................................................................................... 86 J. Sailfish -
Infectious Diseases of Saiga Antelopes and Domestic Livestock in Kazakhstan
Infectious diseases of saiga antelopes and domestic livestock in Kazakhstan Monica Lundervold University of Warwick, UK June 2001 1 Chapter 1 Introduction This thesis combines an investigation of the ecology of a wild ungulate, the saiga antelope (Saiga tatarica, Pallas), with epidemiological work on the diseases that this species shares with domestic livestock. The main focus is on foot-and-mouth disease (FMD) and brucellosis. The area of study was Kazakhstan (located in Central Asia, Figure 1.1), home to the largest population of saiga antelope in the world (Bekenov et al., 1998). Kazakhstan's independence from the Soviet Union in 1991 led to a dramatic economic decline, accompanied by a massive reduction in livestock numbers and a virtual collapse in veterinary services (Goskomstat, 1996; Morin, 1998a). As the rural economy has disintegrated, the saiga has suffered a dramatic increase in poaching (Bekenov et al., 1998). Thus the investigation reported in this thesis includes ecological, epidemiological and socio-economic aspects, all of which were necessary in order to gain a full picture of the dynamics of the infectious diseases of saigas and livestock in Kazakhstan. The saiga is an interesting species to study because it is one of the few wildlife populations in the world that has been successfully managed for commercial hunting over a period of more than 40 years (Milner-Gulland, 1994a). Its location in Central Asia, an area that was completely closed to foreigners during the Soviet era, means that very little information on the species and its management has been available in western literature. The diseases that saigas share with domestic livestock have been a particular focus of this study because of the interesting issues related to veterinary care and disease control in the Former Soviet Union (FSU). -
Anaplasma Phagocytophilum and Babesia Species Of
pathogens Article Anaplasma phagocytophilum and Babesia Species of Sympatric Roe Deer (Capreolus capreolus), Fallow Deer (Dama dama), Sika Deer (Cervus nippon) and Red Deer (Cervus elaphus) in Germany Cornelia Silaghi 1,2,*, Julia Fröhlich 1, Hubert Reindl 3, Dietmar Hamel 4 and Steffen Rehbein 4 1 Institute of Comparative Tropical Medicine and Parasitology, Ludwig-Maximilians-Universität München, Leopoldstr. 5, 80802 Munich, Germany; [email protected] 2 Institute of Infectology, Friedrich-Loeffler-Institut, Südufer 10, 17493 Greifswald Insel Riems, Germany 3 Tierärztliche Fachpraxis für Kleintiere, Schießtrath 12, 92709 Moosbach, Germany; [email protected] 4 Boehringer Ingelheim Vetmedica GmbH, Kathrinenhof Research Center, Walchenseestr. 8-12, 83101 Rohrdorf, Germany; [email protected] (D.H.); steff[email protected] (S.R.) * Correspondence: cornelia.silaghi@fli.de; Tel.: +49-0-383-5171-172 Received: 15 October 2020; Accepted: 18 November 2020; Published: 20 November 2020 Abstract: (1) Background: Wild cervids play an important role in transmission cycles of tick-borne pathogens; however, investigations of tick-borne pathogens in sika deer in Germany are lacking. (2) Methods: Spleen tissue of 74 sympatric wild cervids (30 roe deer, 7 fallow deer, 22 sika deer, 15 red deer) and of 27 red deer from a farm from southeastern Germany were analyzed by molecular methods for the presence of Anaplasma phagocytophilum and Babesia species. (3) Results: Anaplasma phagocytophilum and Babesia DNA was demonstrated in 90.5% and 47.3% of the 74 combined wild cervids and 14.8% and 18.5% of the farmed deer, respectively. Twelve 16S rRNA variants of A. phagocytophilum were delineated. -
Tentative List "Lena Pillars"
TENTATIVE LIST STATE PARTY: Russian Federation DATE OF SUBMISSION: 11/07/2006 Submission prepared by: Name: E-mail: Address: Fax: Institution: Telephone: Name of Property Nature Park “Lena Pillars” The Nature Park is located in Khangalassky ulus State, Province or Region (region) of Yakutia. The NP is located on the right bank of the river Lena middle stream. Geographical coordinates of the nominated site: • The utmost north point: 124°55′52′′ east longitude; 60°43′28′′ north latitude; • The utmost south point: 127°16′30′′ east longitude; 60°49′00′′ north latitude; Latitude and Longitude or UTM •The utmost west point: coordinates 125°00′04′′ east longitude; 60 °44′ 49′′ north latitude; • The utmost east point: 128°47′55′′ east longitude; 61 °15 ′57′′ north latitude Area of the site: 485 000 ha. Area of its buffer zone: 868 100 ha. DESCRIPTION: In the NP “Lena Pillars” area the main landscape-environmental factors: the geological texture and relief, the geocryological condition and climate - are characterized with the considerable heterogeneity. Geology and relief The territory of the NP “Lena Pillars” is situated at the northern periclinale of the Aldan anteclises, complicated by the small- amplitude arched uplift and protrusions occupying the large areas. In the park area the sedimentary mantle is represented by unexposed upper Precambrian, exposed Cambrian and Quaternary deposits which lie flat or with hade of layers measured by minutes or rarely by the first degrees. Along the Sinyaya River the lower Cambrian deposits are exposed, and along the Lena and the Buotoma rivers the lower and middle Cambrian deposits are denuded. -
Nile Crocodile Fact Sheet 2017
NILE CROCODILE FACT SHEET 2017 Common Name: Nile crocodile Order: Crocodylia Family: Crocodylidae Genus & Species: Crocodylus niloticus Status: IUCN Least Concern; CITES Appendix I and II depending on country Range: The Nile crocodile is found along the Nile River Valley in Egypt and Sudan and distributed throughout most of sub-Saharan Africa and Madagascar. Habitat: Nile crocodiles occupy a variety of aquatic habitats including large freshwater lakes, rivers, freshwater swamps, coastal estuaries, and mangrove swamps. In Gorongosa, Lake Urema and its network of rivers are home to a large crocodile population. Description: Crocodylus niloticus means "pebble worm of the Nile” referring to the long, bumpy appearance of a crocodile. Juvenile Nile crocodiles tend to be darker green to dark olive-brown in color, with blackish cross-banding on the body and tail. As they age, the banding fades. As adults, Nile crocodiles are a grey-olive color with a yellow belly. Their build is adapted for life in the water, having a streamlined body with a long, powerful tail, webbed hind feet and a long, narrow jaw. The eyes, ears, and nostrils are located on the top of the head so that they can submerge themselves under water, but still have sensing acuity when hunting. Crocodiles do not have lips to keep water out of their mouth, but rather a palatal valve at the back of their throat to prevent water from being swallowed. Nile crocodiles also have integumentary sense organs which appear as small pits all over their body. Organs located around the head help detect prey, while those located in other areas of the body may help detect changes in pressure or salinity. -
PDF File Containing Table of Lengths and Thicknesses of Turtle Shells And
Source Species Common name length (cm) thickness (cm) L t TURTLES AMNH 1 Sternotherus odoratus common musk turtle 2.30 0.089 AMNH 2 Clemmys muhlenbergi bug turtle 3.80 0.069 AMNH 3 Chersina angulata Angulate tortoise 3.90 0.050 AMNH 4 Testudo carbonera 6.97 0.130 AMNH 5 Sternotherus oderatus 6.99 0.160 AMNH 6 Sternotherus oderatus 7.00 0.165 AMNH 7 Sternotherus oderatus 7.00 0.165 AMNH 8 Homopus areolatus Common padloper 7.95 0.100 AMNH 9 Homopus signatus Speckled tortoise 7.98 0.231 AMNH 10 Kinosternon subrabum steinochneri Florida mud turtle 8.90 0.178 AMNH 11 Sternotherus oderatus Common musk turtle 8.98 0.290 AMNH 12 Chelydra serpentina Snapping turtle 8.98 0.076 AMNH 13 Sternotherus oderatus 9.00 0.168 AMNH 14 Hardella thurgi Crowned River Turtle 9.04 0.263 AMNH 15 Clemmys muhlenbergii Bog turtle 9.09 0.231 AMNH 16 Kinosternon subrubrum The Eastern Mud Turtle 9.10 0.253 AMNH 17 Kinixys crosa hinged-back tortoise 9.34 0.160 AMNH 18 Peamobates oculifers 10.17 0.140 AMNH 19 Peammobates oculifera 10.27 0.140 AMNH 20 Kinixys spekii Speke's hinged tortoise 10.30 0.201 AMNH 21 Terrapene ornata ornate box turtle 10.30 0.406 AMNH 22 Terrapene ornata North American box turtle 10.76 0.257 AMNH 23 Geochelone radiata radiated tortoise (Madagascar) 10.80 0.155 AMNH 24 Malaclemys terrapin diamondback terrapin 11.40 0.295 AMNH 25 Malaclemys terrapin Diamondback terrapin 11.58 0.264 AMNH 26 Terrapene carolina eastern box turtle 11.80 0.259 AMNH 27 Chrysemys picta Painted turtle 12.21 0.267 AMNH 28 Chrysemys picta painted turtle 12.70 0.168 AMNH 29 -
Crocodile Facts and Figures
Crocodile facts The saltwater crocodile is the largest living reptile species. It can grow up to six metres and is a serious threat to humans. Saltwater crocodiles have evolved special characteristics that make them excellent predators. • Large saltwater crocodiles can stay underwater for at least one hour because they can reduce their heart rate to 2-3 beats per minute. This means that crocodiles can wait underwater until they see prey, or if people are using the same spot regularly, the crocodile can wait underwater until someone approaches the water’s edge. • A crocodile can float with only eyes and nostrils exposed, enabling it to approach prey without being detected. • When under water, a special transparent eyelid protects the crocodile’s eye. This means that crocodiles can still see when they are completely submerged. • The tail of a crocodile is solid muscle and a major source of power, making it a strong swimmer and able to make sudden lunges out of the water to capture prey. These strong muscles also mean that for shorts bursts of time crocodiles can move faster than humans can on land. • Crocodiles have a thin layer of guanine crystals behind their retina. This intensifies images, allowing crocodiles to see better at low light levels. • Crocodiles have a ‘minimum exposure’ posture in the water, which means that only their sensory organs of eyes, cranial platform, ears and nostrils remain out of the water. This means that they often go unseen by prey, but if they are observed, the prey is often not able to tell how big the crocodile is. -
Fascinating Folktales of Thailand
1. The rabbiT and The crocodile Once upon a time the rabbit used to have a long and beautiful tail similar to that of the squirrel and at that time the crocodile also had a long tongue like other animals on earth. Unfortunately, one day while the rabbit was drinking water at the bank of a river without realizing possible danger, a big crocodile slowly and quietly moved in. It came close to the poor rabbit. The crocodile suddenly snatched the small creature into its mouth with intention of eating it slowly. However, before swallowing its prey, the crocodile threatened the helpless rabbit by making a loud noise without opening its mouth. Afraid as it was, the rabbit pretended not to fear approaching death and shouted loudly. “A poor crocodile! Though you are big, I’m not afraid of you in the least. You threatened me with a noise not loud enough to make me scared because you didn’t open your mouth widely.” Not knowing the rabbit’s trick, the furious crocodile opened its mouth widely and made a loud noise. As soon as the crocodile opened its mouth, the rabbit jumped out fast and its sharp claws snatched away the crocodile’s tongue. At the moment of sharp pain, the crocodile shut its mouth at once as instinct had taught it to do. At the end of the episode, the rabbit lost its beautiful tail while the crocodile lost its long tongue in exchange for its ignorance of the trick. From then on, the rabbit no longer had a long tail while the crocodile no longer had a long tongue as other animals.