Asian Rhinoceros
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The Ancients' One-Horned
The Ancients’ One-Horned Ass: Accuracy and Consistency Chris Lavers HIS PAPER explores ancient Greek and Roman accounts of the one-horned ass.1 These narratives have been studied extensively by literary scholars and historians but have Tbeen largely ignored by zoologists and geographers. When the zoological and geographical underpinnings of the accounts are examined, however, it becomes apparent that these ancient writers may have had a more definite notion of the region about which they wrote than hitherto has been assumed. The animals contributing to the descriptions of the one-horned ass by Ctesias, Pliny, and Aelian can be found in the highlands of Central Asia. Indeed, Central Asia appears to be the only place on the Earth’s surface that could have given rise to the corpus of ancient accounts of the unicorned ass and the animals that shared its landscape. 1. Introduction Ctesias of Cnidus was a Greek physician who spent seventeen years ministering at the court of the King of Persia. In 398 B.C. he returned to Greece and began two reference works, a history of Persia in twenty-three volumes, now mostly lost, and Indica, a treatise on the region probably roughly coincident with 1 It will quickly become apparent to regular readers of this journal that the author is not a classicist. I am greatly indebted to Kent Rigsby, the editorial board of GRBS, and an anonymous reviewer for considering a manuscript from a zoologist, and for their kind assistance in turning a clumsy initial submission into the present, less clumsy version. All opinions and errors are mine. -
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Forest Fire Prediction Modeling in the Terai Arc Landscape of the Lesser Himalayas Using the Maximum Entropy Method Amit Kumar Verma and Namitha Nhandadiyil Kaliyathan, Forest Research Institute, Dehradun, India; Narendra Singh Bisht, Arunachal Pradesh Forest Department, India; and Satinder Dev Sharma and Raman Nautiyal, Indian Council of Forestry Research & Education, Dehradun, India Abstract—The Terai Arc Landscape (TAL) is an ecologically important region of the Indian subcontinent, where anthropogenic habitat loss and forest fragmentation are major issues. The most prominent threat is forest fires because of their impacts on the microhabitat and macrohabitat characteristics and the resulting disruption of ecological processes. Moreover, wildfire aggravates conflicts between humans and wildlife in the forest fringe areas. The lack of a proper forest fire monitoring system in the TAL is a major management issue that needs attention for long-term forest viability. Hence, the present study was undertaken using maximum entropy modeling to predict the areas across the TAL at risk of wildfire and to identify key variables associated with fire occurrence. Spatiotemporally independent fire incidence locations along with other environmental variables were used to build the model. The accuracy of the model was assessed using the area under the curve. To evaluate the importance of each variable, a jackknife procedure was adopted. Areas in the projected map were categorized into high fire, marginal fire, and no fire areas. An adaptive forest management strategy can be implemented in the modeled high fire areas to mitigate forest fire and wildlife conflict in the TAL. Keywords: forest fire, maximum entropy, Terai Arc Landscape, Tiger INTRODUCTION biodiversity (Dennis and Meijaard 2001) because of changes in climate and in human use and misuse of A forest fire, whether caused by natural forces or fire. -
Tapir Tracks Dear Educator
TAPIR TRACKS A Curriculum Guide for Educators 2 Tapir Tracks Dear Educator, Welcome to Tapir Tracks! This curriculum was created for classroom teachers and educators at zoos and other nonformal science learning centers to enable you and your students to discover tapirs of the Americas and Asia. Because tapirs spread seeds from the fruits they eat, these little-known mammals are essential to the health of the forests they inhabit. However, tapir populations are rapidly declining. Loss of their habitat and hunting threaten tapir survival. An international team of scientists and conservationists works to study wild tapirs, manage the zoo-based population, protect habitat, and educate local communities. We collaborate through the Tapir Specialist Group, of the International Union for Conservation of Nature (IUCN) Species Survival Commission. This packet includes background information along with lesson plans and activities that can easily be adapted for kindergarten, elementary and secondary school students (grades K-12). An online link is included for you to download images and videos to use in your teaching: http://tapirs.org/resources/educator-resources. This toolkit is designed to enable you to meet curriculum requirements in multiple subjects. Students can explore the world’s tapirs through science, environmental studies, technology, social studies, geography, the arts and creative writing activities. We hope that by discovering tapirs through these lessons and engaging activities that students will care and take action to protect tapirs -
INTRODUCTION 1.1 Background This Strategic Plan Is Prepared for the Terai Arc Landscape (TAL) - Nepal Which Covers Part Or Whole of 14 Terai Districts Viz
1 INTRODUCTION 1.1 Background This Strategic Plan is prepared for the Terai Arc Landscape (TAL) - Nepal which covers part or whole of 14 Terai districts viz. Kanchanpur, Kailali, Bardia, Banke, Dang, Kapilvastu, Rupandehi, Palpa, Nawalparasi, Chitwan, Makwanpur, Bara, Parsa and Rautahat. The plan is prepared in consultation with different stakeholders for a period of ten years from 2004 to 2014. This section provides a background to the landscape, its people and biodiversity, and the conservation and livelihood approach. The TAL is a vast conservation landscape of approximately 49,500 sq km, stretching from Nepals Bagmati River in the east to Indias Yamuna River in the west (Map 1). It links 11 trans boundary protected areas (Table 1), from Parsa Wildlife Reserve in Nepal to Rajaji National Park in India. Map 1: Terai Arc Landscape Table 1: Protected Areas in TAL Protected Areas Area (km2) NEPAL TERAI ARC LANDSCAPE-NEPAL ARC TERAI Parsa Wildlife Reserve 499 2 Royal Chitwan National Park 932 Royal Bardia National Park 968 Royal Suklaphanta Wildlife Reserve 305 INDIA Valmikinagar Wildlife Sanctuary 336 Katarniaghat Wildlife Sanctuary 551 Dudhwa National Park 490 Kishanpur Wildlife Sanctuary 227 Corbett National Park 520 Sonanadi Wildlife Sanctuary 798 Rajaji National Park 831 Fed by the watershed of the Churia (Siwalik) Hills that runs east to west, the TAL area in Nepal (TAL - The Nepalese portion of Nepal) is so fertile that it is called the rice bowl of the country. Less than 50 years ago, it was a TAL extends over 23,199 contiguous expanse of dense forests and tall grasses. -
Deciduous Forest
Biomes and Species List: Deciduous Forest, Desert and Grassland DECIDUOUS FOREST Aardvark DECIDUOUS FOREST African civet DECIDUOUS FOREST American bison DECIDUOUS FOREST American black bear DECIDUOUS FOREST American least shrew DECIDUOUS FOREST American pika DECIDUOUS FOREST American water shrew DECIDUOUS FOREST Ashy chinchilla rat DECIDUOUS FOREST Asian elephant DECIDUOUS FOREST Aye-aye DECIDUOUS FOREST Bobcat DECIDUOUS FOREST Bornean orangutan DECIDUOUS FOREST Bridled nail-tailed wallaby DECIDUOUS FOREST Brush-tailed phascogale DECIDUOUS FOREST Brush-tailed rock wallaby DECIDUOUS FOREST Capybara DECIDUOUS FOREST Central American agouti DECIDUOUS FOREST Chimpanzee DECIDUOUS FOREST Collared peccary DECIDUOUS FOREST Common bentwing bat DECIDUOUS FOREST Common brush-tailed possum DECIDUOUS FOREST Common genet DECIDUOUS FOREST Common ringtail DECIDUOUS FOREST Common tenrec DECIDUOUS FOREST Common wombat DECIDUOUS FOREST Cotton-top tamarin DECIDUOUS FOREST Coypu DECIDUOUS FOREST Crowned lemur DECIDUOUS FOREST Degu DECIDUOUS FOREST Working Together to Live Together Activity—Biomes and Species List 1 Desert cottontail DECIDUOUS FOREST Eastern chipmunk DECIDUOUS FOREST Eastern gray kangaroo DECIDUOUS FOREST Eastern mole DECIDUOUS FOREST Eastern pygmy possum DECIDUOUS FOREST Edible dormouse DECIDUOUS FOREST Ermine DECIDUOUS FOREST Eurasian wild pig DECIDUOUS FOREST European badger DECIDUOUS FOREST Forest elephant DECIDUOUS FOREST Forest hog DECIDUOUS FOREST Funnel-eared bat DECIDUOUS FOREST Gambian rat DECIDUOUS FOREST Geoffroy's spider monkey -
(EHV-1 and EHV-9): Genetic Diversity, Latency and Co-Infections
viruses Article Zebra Alphaherpesviruses (EHV-1 and EHV-9): Genetic Diversity, Latency and Co-Infections Azza Abdelgawad 1, Armando Damiani 2, Simon Y. W. Ho 3, Günter Strauss 4, Claudia A. Szentiks 1, Marion L. East 1, Nikolaus Osterrieder 2 and Alex D. Greenwood 1,5,* 1 Leibniz-Institute for Zoo and Wildlife Research, Alfred-Kowalke-Strasse 17, Berlin 10315, Germany; [email protected] (A.A.); [email protected] (C.A.S.); [email protected] (M.L.E.) 2 Institut für Virologie, Freie Universität Berlin, Robert-von-Ostertag-Str. 7-13, Berlin 14163, Germany; [email protected] (A.D.); [email protected] (N.O.) 3 School of Life and Environmental Sciences, University of Sydney, Sydney, NSW 2006, Australia; [email protected] 4 Tierpark Berlin-Friedrichsfelde, Am Tierpark 125, Berlin 10307, Germany; [email protected] 5 Department of Veterinary Medicine, Freie Universität Berlin, Oertzenweg 19, Berlin 14163, Germany * Correspondence: [email protected]; Tel.: +49-30-516-8255 Academic Editor: Joanna Parish Received: 21 July 2016; Accepted: 14 September 2016; Published: 20 September 2016 Abstract: Alphaherpesviruses are highly prevalent in equine populations and co-infections with more than one of these viruses’ strains frequently diagnosed. Lytic replication and latency with subsequent reactivation, along with new episodes of disease, can be influenced by genetic diversity generated by spontaneous mutation and recombination. Latency enhances virus survival by providing an epidemiological strategy for long-term maintenance of divergent strains in animal populations. The alphaherpesviruses equine herpesvirus 1 (EHV-1) and 9 (EHV-9) have recently been shown to cross species barriers, including a recombinant EHV-1 observed in fatal infections of a polar bear and Asian rhinoceros. -
The Classical Rhinoceros
The Classical Rhinoceros by SIR WILLIAMGOWERS Y the term ‘ classical rhinoceros ’ I mean the rhinoceros which was known to the Greek and Roman world during the five and a half centuries between 300 B.C. B and A.D. 250, which was shown from time to time at Alexandria under the Ptolemies and later on appeared regularly in the arena at Rome taking part in fights with other beasts and with men. Although the Indian rhinoceros seems occasionally to have been exhibited at Rome, at any rate in the early years of the Empire, I believe that the rhino- ceros usually shown there came from Africa, and I have tried to anaIyse such evidence as is available to show firstly what species it was and secondly what part of Africa it came from. There are, of course, two quite distinct kinds of African rhinoceros, the square- mouthed and the prehensile-lipped, popularly known respectively as the White and the Black Rhinoceros. Until recently their scientific names were Rhinoceros simus and Rhinoceros bicornis, but systematists have now separated them into two genera, calling the former Ceratotherium simunz and the latter Diceros bicornis ; denying to both the title of Rhinoceros which they reserve for the Indian rhinoceros and its near Asiatic relatives. For the sake of simplicity and brevity I shall retain the old names and call them simus and bicornis. The popular misnomers of ‘ white ’ and ‘ black ’ are a legacy from the South African Dutch of the 17th century, who called simus ‘ wit renaster ’ and bicornis ‘ zwart renaster’. They were not very particular about exact shades of colour and probably meant no more than that one species usually appeared much lighter than the other. -
Nepal-Emission-Reductions-Program
COMBINED PROJECT INFORMATION DOCUMENTS/ INTEGRATED SAFEGUARDS DATA SHEET (PID/ISDS) APPRAISAL STAGE Report No.: 154708 Public Disclosure Authorized Date ISDS Prepared/Updated: 24-June-2020 I. BASIC INFORMATION A. Basic Project Data Country: Nepal Project ID: P165375 Project Name: Nepal ER-Program for the Terai Arc Landscape (P165375) Region: South Asia Task Team Leader(s): Andrea Kutter/Rajesh Koirala Estimated Board Date: NA Practice Area (Lead): Environment, Natural Resources & Blue Econmomy Global Practice Public Disclosure Authorized Lending Instrument: Carbon Finance - Emission Reductions Payment Agreement (ERPA) Sector(s): Environment Theme(s): Forestry Implementing Agency: Ministry of Forests and Environment Is this project processed under OP 8.50 (Emergency Recovery) or OP 8.00 No (Rapid Response to Crises and Emergencies)? Project Financing Data (in USD Million) Total Project Cost: 45.0 Total Bank Financing: Financing Gap: 0.0 Public Disclosure Authorized Financing Source Amount BORROWER/RECIPIENT Forest Carbon Partnership Facility Carbon Fund 45.0 Trust Funds 0.0 Total Project Cost 45.0 Environmental Category: B - Partial Assessment Is this a Repeater project? No Is this a Transferred project? Yes Public Disclosure Authorized 1 B. Introduction and Context Country Context A new government, backed by an unprecedented majority in Parliament, took office on February 15, 2018. This follows successful elections for all three tiers (local, state and federal) of the new state architecture defined by the 2015 constitution, marking a protracted-but-successful conclusion of a political transition that began with the signing of the Comprehensive Peace Agreement in November 2006. State governments largely mirror the coalition at the center. At the sub-national level, funds, functions and functionaries hitherto managed by the central, district and village authorities are moving to the seven new provinces and 753 local governments for which new legislation, institutions and administrative procedures are being formalized as constitutionally prescribed. -
The Sumatran Rhinoceros (Dicerorhinus Sumatrensis) Robin W
Intensive Management and Preventative Medicine Protocol for the Sumatran Rhinoceros (Dicerorhinus sumatrensis) Robin W. Radcliffe, DVM, DACZM Scott B. Citino, DVM, DACZM Ellen S. Dierenfeld, MS, PhD Thornas J. Foose, MS, PhD l Donald E. Paglia, MD John S. Romo History and ~ack~iound The Sumatran rhinoceros (~icerorhinussumatrensis) is a highly endangered browsing rhinoceros that inhabits the forested regions of Indonesia and Malaysia. The Sumatran is considered a primitive rhinoceros with a characteristic coat of hair; it is closely related to the woolly rhinoceros (Coelodonfa antiquitatis), a species once abundant throughout Asia during the Pleistocene era. In Malaysia, the Sumatran rhino is known locally as badak Kerbau while in Indonesia the local name is badak Sumatera. Today the Sumatran rhinoceros is considered one of the most7endangered large mammals on earth with an estimated 300 animals remaining. Poaching for the animal's horrhas resulted in their decline with habitat loss a secondary factor contributing to population reduction and isolation. Attempts at captive propagation of the Sumatran rhmoceros have been problematic due to sigruhcant health problems and an inability to provide. appropriate captive nutritional and husbandry requirements needed to meet the demands of these highly specialized browsers. This Preventative Medicine Protocol is designed to provide a basis upon which more natural captive propagation efforts for this species can proceed by providing a tool for monitoring health. Goals of Preven tative Medicine Protocol The goals of the preventative medicine protocol are to provide a comprehensive monitoring program to assist in preventing disease and making appropriate decisions regarding health of captive animals. This protocol can be broken down into four main areas: 1. -
Rapid Recovery of Tigers Panthera Tigris in Parsa Wildlife Reserve, Nepal
Rapid recovery of tigers Panthera tigris in Parsa Wildlife Reserve, Nepal B ABU R AM L AMICHHANE,CHIRANJIBI P RASAD P OKHERAL,SHASHANK P OUDEL D IPENDRA A DHIKARI,SAILENDRA R AJ G IRI,SANTOSH B HATTARAI,TEK R AJ B HATTA R OB P ICKLES,RAJAN A MIN,KRISHNA P RASAD A CHARYA,MAHESHWAR D HAKAL U BA R AJ R EGMI,ASHOK K UMAR R AM and N ARESH S UBEDI Abstract Information on density and abundance of globally Chitwan–Parsa complex should be managed as a single eco- threatened species such as tigers Panthera tigris is essential logical unit for conserving the Endangered tiger and other for effective conservation as well as to evaluate the success of wide-ranging species. conservation programmes. We monitored tigers in Parsa Keywords Camera trapping, conservation success, Nepal, Widlife Reserve, Nepal, using camera traps, in , Panthera tigris, Parsa Wildlife Reserve, source–sink, tiger and . Once believed to be a sink for tigers from adjacent population Chitwan National Park, Parsa now provides a new hope for tigers. Spatially explicit capture–recapture analysis over survey years revealed an increase in tiger density from . to . individuals per km from to . The tiger abundance was estimated to be seven (–), Introduction (–) and (–) in , and , respectively. he tiger Panthera tigris, categorized as Endangered on Resettlement of communities from the core area, reduced Tthe IUCN Red List (Goodrich et al., ), remains in anthropogenic pressure, and improved security have made % of its historical range (Joshi et al., ). The remaining Parsa Wildlife Reserve a suitable habitat for tigers. Tiger habitat is not occupied at optimum density because of abundance increased considerably within a km radius of poaching of tigers, hunting of their prey species and conflict the evacuated village sites, from two in to eight in with local communities (Goodrich, ; Walston et al., and in . -
The Animals Saved from the Flood by Noah. Detail from a Painting by Roeland Savery
THE STORY OF MAN'S DISCOVERY OF THE ANIMAL KINGDOM Translated from the German by MICHAEL BULLOCK Illustrated with photographs and line drawings The animals saved from the Flood by Noah. Detail from a painting by Roeland Savery. HOUGHTON MIFFLIN COMPANY BOSTON 1 959 34 A CABINET OF MONSTERS MONOCEROS AND RHINOCEROS 35 in a thoroughly practical way. He had an elephant station set up earlier versions by the Latin word unicornis or the Greek monoceros near Api in the Congo-the first of its kind on African soil since --both meaning one-horn. It is clear, at any rate, that there once the days of Ptolemy Philadelphus. The experiment succeeded, al existed in the East a powerful beast which n1en caught, tied to the though Kornaks brought from India could not cope with the crib, put in harness and set to work in the fields. The taming of forest elephants of the Congo. Native Zanga negroes, on the this beast seemed to the men of those days a great and wonderful other hand, managed very well. After the closing of Api a new event, an epoch-making feat that could not have been accom station was established at Gangala-na-Bodio on the upper Wele. plished without the grace of God. Here the tame elephants of the colonial government still perform This unicorn was already a legendary creature in the ancient valuable services as draught animals and beasts of burden in all world. In the Middle Ages it developed into a mythical super sorts of forestry work, in spite of the introduction of lorries and beast, the nature of which Leonardo da Vinci outlined in the tractors. -
Tiger Conservation in South Asia: Lessons from Teari Arc Landscapes, Nepal
2nd International Conference on Tropical Biology “Ecological Restoration in Southeast Asia: Challenges, Gains, and Future Directions”, SEAMEO BIOTROP, Bogor-INDONESIA, 12-13 OCTOBER 2015 TIGER CONSERVATION IN SOUTH ASIA: LESSONS FROM TEARI ARC LANDSCAPES, NEPAL MAHESHWAR DHAKAL1* AND HIMLAL BARAL2 1Department of National Parks and Wildlife Conservation, Nepal 2Centre for International Forestry Research (CIFOR), Indonesia *Corresponding author ABSTRACT The Tiger (Panthera tigiris tigiris) is an iconic, charismatic and umbrella species of certain terrestrial ecosystems. Globally the species faces very serious threats through habitat loss, and human-tiger conflicts like poaching and illegal trade of its body parts. There is clear need for policy-makers and conservationists to give greater attention to conservation strategy, if the species is to be saved in the wild. The iconic status of the tiger in terrestrial ecosystems, means success in its conservation has wide implications for the survival of other species. This study aimed to assess and review the efforts made by the Government of Nepal and its achievements in terms of conserving the tiger population and its prey-base. We assess the status of the species with reference to the Global Tiger Recovery program (GTRP) and the progress made by the Government of Nepal. The study was carried out in the lowlands of Nepal, the Terai Arc Landscape (TAL), an important tiger landscape compromising six protected area of Nepal and nine protected areas in India. However, this paper covers only the Nepal part. The TAL (Nepal part) extends from Bagmati River in the east to Mahakali River in the west. There are six tiger bearing protected areas in the TAL, and Chitwan National Park supports the largest tiger population, one of the very few protected areas with more than 100 tigers.