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Wildlife Guide How Many of These Have You Spotted in the Forest?
FOREST OF DEAN / SAVERNAKE FOREST / SNOWDONIA Wildlife GuidE How many of these have you spotted in the forest? SPECIES FOREST OF DEAN Sheep The Forest of Dean is famous for its large population of free roaming sheep derived from many breeds and include welsh mountain, speckled faced or cheviots with the occasional kerry or ryeland. The sheep have been around for hundreds of years and are likely to continue to be part of the Forest scenery. Best time to see sheep: All year round Deer In Norman times, the Forest was protected as a games reserve where red, roe and fallow deer and wild boar were hunted. Today, it is only fallow or roe deer that can be found. Early morning or dusk is the time when you are most likely to see deer in the Forest. Best time to see Fallow deer: All year round Wild Boar Wild boar were once common in England, but were hunted to extinction at least 300 years ago. In recent years, small populations of wild boar have become established again in the wild, with the Forest of Dean's wild boar poppulation now the largest that exists in England. Boars are best spotted early morning or in the evenings in the Forest of Dean. Best time to see Wild Boar: All year round SAVERNAKE FOREST A small bird of prey, the Sparrowhawk is perfectly adpated for hunting birds in small enclosed woodlands. Listen out for the alarm calls of smaller birds as they spot a Sparrowhawk, alerting other birds in the area to the danger. -
Ecology of Red Deer a Research Review Relevant to Their Management in Scotland
Ecologyof RedDeer A researchreview relevant to theirmanagement in Scotland Instituteof TerrestrialEcology Natural EnvironmentResearch Council á á á á á Natural Environment Research Council Institute of Terrestrial Ecology Ecology of Red Deer A research review relevant to their management in Scotland Brian Mitchell, Brian W. Staines and David Welch Institute of Terrestrial Ecology Banchory iv Printed in England by Graphic Art (Cambridge) Ltd. ©Copyright 1977 Published in 1977 by Institute of Terrestrial Ecology 68 Hills Road Cambridge CB2 11LA ISBN 0 904282 090 Authors' address: Institute of Terrestrial Ecology Hill of Brathens Glassel, Banchory Kincardineshire AB3 4BY Telephone 033 02 3434. The Institute of Terrestrial Ecology (ITE) was established in 1973, from the former Nature Conservancy's research stations and staff, joined later by the Institute of Tree Biology and the Culture Centre of Algae and Protozoa. ITE contributes to and draws upon the collective knowledge of the fourteen sister institutes which make up the Natural Environment Research Council, spanning all the environmental sciences. The Institute studies the factors determining the structure, composition and processes of land and freshwater systems, and of individual plant and animal species. It is developing a Sounder scientific basis for predicting and modelling environmental trends arising from natural or man-made change. The results of this research are available to those responsible for the protection, management and wise use of our natural resources. Nearly half of ITE'Swork is research commissioned by customers, such as the Nature Conservancy Council who require information for wildlife conservation, the Forestry Commission and the Department of the Environment. The remainder is fundamental research supported by NERC. -
Species Fact Sheet: Sika Deer (Cervus Nippon) [email protected] 023 8023 7874
Species Fact Sheet: Sika Deer (Cervus nippon) [email protected] www.mammal.org.uk 023 8023 7874 Quick Facts Recognition: A medium-sized deer. Has a similar spotted coat to fallow deer in summer, but usually is rougher, thicker, dark grey-brown in winter. Tail is shorter than fallow deer, but with similar white “target” and black margins. Usually has a distinctive “furrowed brow” look, and if seen well, evident white spots on the limbs, marking the site of pedal glands. Males have rounded, not pamate, antlers, looking like a small version of a red deer stag’s antlers. Size: 138-179 cm; Tail length: 14-21cm; Shoulder height 50-120 cm. Weight: Males 40-63kg; females 31-44kg. Life Span: Maximum recorded lifespan in captivity is 26 years; 16 in the wild. Distribution & Habitat Sika are native to SE China, including Taiwan, Korea and Japan. It was introduced to Powerscourt Park, Co Wicklow, Ireland, in 1860, and to London Zoo. Sika then spread to many other parks and escaped or were deliberately released; in some cases they were deliberately released into surrounding woodlands to be hunted on horseback. This resulted in feral populations S England (especially Dorset and the New Forest), in the Forest of Bowland and S Cumbria, and, especially, in Scotland. It is still spreading. Its preference for conifer plantations, especially the thick young stages, has been a big advantage to it. It can reach densities up to 45/km2 in prime habitat. General Ecology Behaviour They typically live in small herds of 6-7 animals, at least in more open habitats, but in dense cover may only live in small groups of 1-3 only. -
The European Fallow Deer (Dama Dama Dama)
Heredity (2017) 119, 16–26 OPEN Official journal of the Genetics Society www.nature.com/hdy ORIGINAL ARTICLE Strong population structure in a species manipulated by humans since the Neolithic: the European fallow deer (Dama dama dama) KH Baker1, HWI Gray1, V Ramovs1, D Mertzanidou2,ÇAkın Pekşen3,4, CC Bilgin3, N Sykes5 and AR Hoelzel1 Species that have been translocated and otherwise manipulated by humans may show patterns of population structure that reflect those interactions. At the same time, natural processes shape populations, including behavioural characteristics like dispersal potential and breeding system. In Europe, a key factor is the geography and history of climate change through the Pleistocene. During glacial maxima throughout that period, species in Europe with temperate distributions were forced south, becoming distributed among the isolated peninsulas represented by Anatolia, Italy and Iberia. Understanding modern patterns of diversity depends on understanding these historical population dynamics. Traditionally, European fallow deer (Dama dama dama) are thought to have been restricted to refugia in Anatolia and possibly Sicily and the Balkans. However, the distribution of this species was also greatly influenced by human-mediated translocations. We focus on fallow deer to better understand the relative influence of these natural and anthropogenic processes. We compared modern fallow deer putative populations across a broad geographic range using microsatellite and mitochondrial DNA loci. The results revealed highly insular populations, depauperate of genetic variation and significantly differentiated from each other. This is consistent with the expectations of drift acting on populations founded by small numbers of individuals, and reflects known founder populations in the north. -
Deer in the Peak District and Its Urban Fringe Deer in the Peak District and Its Urban Fringe
Deer in the Peak District and its urban fringe Deer in the Peak District and its urban fringe Fallow Deer bucks at Chatsworth Park. Peter Wolstenholme Deer in the Peak District and its urban fringe Ian D Rotherham and Martin J Derbyshire tudies of British deer populations began in plantings of trees, both native and exotic, as dere- earnest with the problems of over-popula- lict and polluted lands are ‘restored’. Combined Stion of Red Deer Cervus elaphus in the High- with Highways Agency and other roadside plant- lands and Islands. However, in recent decades, ing schemes, the scene has been set to create a the issue of rapidly expanding populations of countrywide green network ideally suited to deer deer in Great Britain has received much attention. species. All the deer occurring in Britain, both The establishment of the Deer Initiative focused native and exotic, have benefited from this situa- concerns on matters such as road-traffic accidents tion, combined, of course, with the absence of any (RTAs) and problems of impacts on native habi- effective predators aside from the motorcar. This tats (e.g. Dolman et al. 2010) and on human health is the context for a regional study first reported in through associated disease. However, whilst the the 1990s (McCarthy et al. 1996). phenomenon of urban deer has been noted, this is The case study covers a core area of Sheffield generally only in passing. and the Peak District, but extends east beyond to In effect, there is a pincer movement as deer Doncaster and the Yorkshire lowlands, and north populations actively expand and colonise urban to the south Pennines and adjacent areas around centres, and as human settlements turn ‘green Barnsley, Huddersfield and Bradford. -
Cervid Mixed-Species Table That Was Included in the 2014 Cervid RC
Appendix III. Cervid Mixed Species Attempts (Successful) Species Birds Ungulates Small Mammals Alces alces Trumpeter Swans Moose Axis axis Saurus Crane, Stanley Crane, Turkey, Sandhill Crane Sambar, Nilgai, Mouflon, Indian Rhino, Przewalski Horse, Sable, Gemsbok, Addax, Fallow Deer, Waterbuck, Persian Spotted Deer Goitered Gazelle, Reeves Muntjac, Blackbuck, Whitetailed deer Axis calamianensis Pronghorn, Bighorned Sheep Calamian Deer Axis kuhili Kuhl’s or Bawean Deer Axis porcinus Saurus Crane Sika, Sambar, Pere David's Deer, Wisent, Waterbuffalo, Muntjac Hog Deer Capreolus capreolus Western Roe Deer Cervus albirostris Urial, Markhor, Fallow Deer, MacNeil's Deer, Barbary Deer, Bactrian Wapiti, Wisent, Banteng, Sambar, Pere White-lipped Deer David's Deer, Sika Cervus alfredi Philipine Spotted Deer Cervus duvauceli Saurus Crane Mouflon, Goitered Gazelle, Axis Deer, Indian Rhino, Indian Muntjac, Sika, Nilgai, Sambar Barasingha Cervus elaphus Turkey, Roadrunner Sand Gazelle, Fallow Deer, White-lipped Deer, Axis Deer, Sika, Scimitar-horned Oryx, Addra Gazelle, Ankole, Red Deer or Elk Dromedary Camel, Bison, Pronghorn, Giraffe, Grant's Zebra, Wildebeest, Addax, Blesbok, Bontebok Cervus eldii Urial, Markhor, Sambar, Sika, Wisent, Waterbuffalo Burmese Brow-antlered Deer Cervus nippon Saurus Crane, Pheasant Mouflon, Urial, Markhor, Hog Deer, Sambar, Barasingha, Nilgai, Wisent, Pere David's Deer Sika 52 Cervus unicolor Mouflon, Urial, Markhor, Barasingha, Nilgai, Rusa, Sika, Indian Rhino Sambar Dama dama Rhea Llama, Tapirs European Fallow Deer -
What Is the Risk of a Cervid TSE Being Introduced from Norway to Britain?
What is the risk of a cervid TSE being introduced from Norway into Great Britain? Qualitative Risk Assessment June 2018 © Crown copyright 2018 You may re-use this information (excluding logos) free of charge in any format or medium, under the terms of the Open Government Licence v.3. To view this licence visit www.nationalarchives.gov.uk/doc/open-government-licence/version/3/ or email [email protected] This publication is available at www.gov.uk/government/publications Any enquiries regarding this publication should be sent to us at [[email protected]] www.gov.uk/defra Contents Summary ............................................................................................................................. 1 Acknowledgements .............................................................................................................. 3 Background .......................................................................................................................... 4 Hazard identification ............................................................................................................ 5 Risk Question .................................................................................................................... 11 Risk Assessment ............................................................................................................... 12 Terminology related to the assessed level of risk ........................................................... 12 Entry assessment .......................................................................................................... -
Establishing a Monitoring Baseline for Threatened Large Ungulates in Eastern Cambodia
Wildl. Biol. 18: 406-413 (2012) Original article DOI: 10.2981/11-107 Ó Wildlife Biology, NKV www.wildlifebiology.com Establishing a monitoring baseline for threatened large ungulates in eastern Cambodia Thomas N.E. Gray, Channa Phan, Chanrattana Pin & Sovanna Prum Monitoring ungulate populations is an essential part of wildlife management with ungulates performing essential eco- system roles including structuring populations of large carnivores. A number of ungulate species in Southeast Asia are al- so globally threatened and are therefore important conservation targets in their own right. We estimated large (. 15 kg) ungulate densities in two protected areas, i.e. Mondulkiri Protected Forest and Phnom Prich Wildlife Sanctuary, in eastern Cambodia using distance-based line transect sampling. During the 2009/2010 and 2010/2011 dry seasons, we surveyed 110 line transects (randomly distributed across 3,406 km2) for a total of 1,310 km. We used DISTANCE 6.0 to model detection functions from observations of banteng Bos javanicus, wild pig Sus scrofa and red muntjac Muntiacus muntjak generating estimates of group density, cluster size and individual density. Estimated densities 6 SE were 1.1 6 0.2 individual banteng/km2,1.46 0.4 individual wild pig/km2 and 2.2 6 0.2 individual red muntjac/km2 giving an overall density of approximately 4.7 large ungulates/km2. Although wild pig and red muntjac densities were within the range of estimates reported from ecologically similar protected areas in tropical Asia, overall large ungulate density is much lower than the intrinsic carrying capacity of deciduous dipterocarp forest. This appears largely to be due to the scarcity of large deer (i.e. -
Karyotype and Idiogram of Indian Hog Deer (Hyelaphus Porcinus) by Conventional Staining, GTG-, High-Resolution and Ag-NOR Banding Techniques
© 2017 The Japan Mendel Society Cytologia 82(3): 227–233 Karyotype and Idiogram of Indian Hog Deer (Hyelaphus porcinus) by Conventional Staining, GTG-, High-Resolution and Ag-NOR Banding Techniques Krit Pinthong1, Alongklod Tanomtong2*, Hathaipat Khongcharoensuk2, Somkid Chaiphech3, Sukjai Rattanayuvakorn4 and Praween Supanuam5 1 Department of Fundamental Science, Faculty of Science and Technology, Surindra Rajabhat University, Surin, Muang 32000, Thailand 2 Toxic Substances in Livestock and Aquatic Animals Research Group, Department of Biology, Faculty of Science, Khon Kaen University, Khon Kaen, Muang 40002, Thailand 3 Department of Animal Science, Rajamangala University of Technology Srivijaya Nakhonsrithammarat Campus, Nakhonsrithammarat, Thungyai 80240, Thailand 4 Department of Science and Mathematics, Faculty of Agriculture and Technology, Rajamangala University of Technology Isan, Surin Campus, Surin, Muang 32000, Thailand 5 Biology Program, Faculty of Science, Ubon Ratchathani Rajabhat University, Ubon Ratchathani, Muang 34000, Thailand Received April 19, 2016; accepted January 20, 2017 Summary Standardized karyotype and idiogram of Indian hog deer (Hyelaphus porcinus) at Khon Kaen Zoo, Thailand was explored. Blood samples were taken from two male and two female deer. After standard whole blood T-lymphocytes were cultured at 37°C for 72 h in presence of colchicine, metaphase spreads were per- formed on microscopic slides and air-dried. Conventional staining, GTG-, high-resolution and Ag-NOR banding techniques were applied to stain the chromosome. The results show that the diploid chromosome number of H. porcinus was 2n=68, the fundamental number (NF) was 70 in both males and females. The types of autosomes observed were 6 large telocentric, 18 medium telocentric and 42 small telocentric chromosomes. -
Huemul Heresies: Beliefs in Search of Supporting Data 2
HUEMUL HERESIES: BELIEFS IN SEARCH OF SUPPORTING DATA 2. BIOLOGICAL AND ECOLOGICAL CONSIDERATIONS Werner T. FlueckA,B,C and Jo Anne M. Smith-FlueckB ANational Council of Scientific and Technological Research (CONICET), Buenos Aires, Swiss Tropical Institute, University Basel, DeerLab, C.C. 176, 8400 Bariloche, Argentina. BInstitute of Natural Resources Analysis, Universidad Atlantida Argentina, Mar del Plata, DeerLab, C.C. 176, 8400 Bariloche, Argentina. CCorresponding author. Email: [email protected] ABSTRACT The continuing lack of well-substantiated information about huemul (Hippocamelus bisulcus) results in reliance on early sources of interpretations. The repeated citing of such hearsay is scrutinized here for their validity. Huemul antlers provide clues about well-being and past changes as up to 5 tines have been documented historically. Antlers are misinterpreted by erroneously considering >2 tines as abnormal. The question is: “What conditions in the past allowed many tines, and allowed antler expressions to be closer to the species norm?” Significant past changes resulted in only few early records of large groups, abundance and killing many huemul. Current orthodox descriptions of huemul are based on little data from remnant populations in marginal habitats. Relying on such biased information results in circular reasoning when interpreting zooarcheology, paleodiets, prehistoric distribution, and huemul ecology in general. Claims of inadequate antipredator response due to evolutionary absence of cursorial predators is unsupported as several Canis species arrived together with cervids, overlapping with dogs having arrived with paleoindians. Huemul reactions toward dogs are similar to other Odocoilines. However, any predation event in severely reduced huemul subpopulations may be important due to dynamics of small populations. -
Red Deer (Cervus Elaphus) Fact Sheet Biology
Fact sheet Red deer Red deer (Cervus elaphus) fact sheet Biology Status Distribution Management Conservation References European Mammal Assessment Biology back to top Food: Red deer (Cervus elaphus) are ruminants and therefore herbivorous. They have a wide food spectrum including grass, herbs, sedges, bark, buts, branches, needles, lichen and all kind of fruits. Depending on the quality of food, these animals eat between 8 and 20 kg a day and this mostly covers their daily water intake, too. Behavior: Red deer react to perturbation during the day by showing a different eating behavior. When there are disturbances, they use to have fewer but longer eating periods between dusk and dawn while they stay rather inactive during the day. Without being disturbed, red deer eat all day long in frequent and short periods and they alternate with rumination and rest. They live in sexually segregated herds for most of the year only mixing during mating season. The living in herds allows the animals to eat and rest while some members survey the herd. Red deer migrate seasonally in their mountainous habitats from higher alpine meadows in summer to the valley bottoms in winter. They always return to the same places, which can be far away from each other, e.g. in the Swiss National Park the distance is up to 40 km. Migrating routes and the whereabouts of the chosen places is taught from mother to offspring. Single males can migrate up to 100 km in order to colonize new habitat. Exchange of information functions via olfactory, visual and audible signals over long and short distances. -
Orf Virus Infection in Alaskan Mountain Goats, Dall's Sheep, Muskoxen
Tryland et al. Acta Vet Scand (2018) 60:12 https://doi.org/10.1186/s13028-018-0366-8 Acta Veterinaria Scandinavica RESEARCH Open Access Orf virus infection in Alaskan mountain goats, Dall’s sheep, muskoxen, caribou and Sitka black‑tailed deer Morten Tryland1* , Kimberlee Beth Beckmen2, Kathleen Ann Burek‑Huntington3, Eva Marie Breines1 and Joern Klein4* Abstract Background: The zoonotic Orf virus (ORFV; genus Parapoxvirus, Poxviridae family) occurs worldwide and is transmit‑ ted between sheep and goats, wildlife and man. Archived tissue samples from 16 Alaskan wildlife cases, representing mountain goat (Oreamnos americanus, n 8), Dall’s sheep (Ovis dalli dalli, n 3), muskox (Ovibos moschatus, n 3), Sitka black-tailed deer (Odocoileus hemionus= sitkensis, n 1) and caribou (Rangifer= tarandus granti, n 1), were analyzed.= = = Results: Clinical signs and pathology were most severe in mountain goats, afecting most mucocutaneous regions, including palpebrae, nares, lips, anus, prepuce or vulva, as well as coronary bands. The proliferative masses were solid and nodular, covered by dark friable crusts. For Dall’s sheep lambs and juveniles, the gross lesions were similar to those of mountain goats, but not as extensive. The muskoxen displayed ulcerative lesions on the legs. The caribou had two ulcerative lesions on the upper lip, as well as lesions on the distal part of the legs, around the main and dew claws. A large hairless spherical mass, with the characteristics of a fbroma, was sampled from a Sitka black-tailed deer, which did not show proliferative lesions typical of an ORFV infection. Polymerase chain reaction analyses for B2L, GIF, vIL-10 and ATI demonstrated ORFV specifc DNA in all cases.