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Wild Mammals of the Annapurna Conservation Area Cggk"0F{ ;+/If0f If]Qsf :Tgwf/L Jgohgt' Wild Mammals of the Annapurna Conservation Area - 2019
Wild Mammals of the Annapurna Conservation Area cGgk"0f{ ;+/If0f If]qsf :tgwf/L jGohGt' Wild Mammals of the Annapurna Conservation Area - 2019 ISBN 978-9937-8522-8-9978-9937-8522-8-9 9 789937 852289 National Trust for Nature Conservation Annapurna Conservation Area Project Khumaltar, Lalitpur, Nepal Hariyo Kharka, Pokhara, Kaski, Nepal National Trust for Nature Conservation P.O. Box: 3712, Kathmandu, Nepal P.O. Box: 183, Kaski, Nepal Tel: +977-1-5526571, 5526573, Fax: +977-1-5526570 Tel: +977-61-431102, 430802, Fax: +977-61-431203 Annapurna Conservation Area Project Email: [email protected] Email: [email protected] Website: www.ntnc.org.np Website: www.ntnc.org.np 2019 Wild Mammals of the Annapurna Conservation Area cGgk"0f{ ;+/If0f If]qsf :tgwf/L jGohGt' National Trust for Nature Conservation Annapurna Conservation Area Project 2019 Wild Mammals of the Annapurna Conservation Area cGgk"0f{ ;+/If0f If]qsf :tgwf/L jGohGt' Published by © NTNC-ACAP, 2019 All rights reserved Any reproduction in full or in part must mention the title and credit NTNC-ACAP. Reviewers Prof. Karan Bahadur Shah (Himalayan Nature), Dr. Naresh Subedi (NTNC, Khumaltar), Dr. Will Duckworth (IUCN) and Yadav Ghimirey (Friends of Nature, Nepal). Compilers Rishi Baral, Ashok Subedi and Shailendra Kumar Yadav Suggested Citation Baral R., Subedi A. & Yadav S.K. (Compilers), 2019. Wild Mammals of the Annapurna Conservation Area. National Trust for Nature Conservation, Annapurna Conservation Area Project, Pokhara, Nepal. First Edition : 700 Copies ISBN : 978-9937-8522-8-9 Front Cover : Yellow-bellied Weasel (Mustela kathiah), back cover: Orange- bellied Himalayan Squirrel (Dremomys lokriah). -
Wild Yak Bos Mutus in Nepal: Rediscovery of a Flagship Species
Mammalia 2015; aop Raju Acharya, Yadav Ghimirey*, Geraldine Werhahn, Naresh Kusi, Bidhan Adhikary and Binod Kunwar Wild yak Bos mutus in Nepal: rediscovery of a flagship species DOI 10.1515/mammalia-2015-0066 2009). It has also been believed to inhabit the lower eleva- Received April 15, 2015; accepted July 21, 2015 tion Altai ranges in Mongolia (Olsen 1990). The possible fossil of wild yak discovered in Nepal (Olsen 1990) provided historical evidence of the species’ Abstract: Wild yak Bos mutus is believed to have gone presence in the country. Schaller and Liu (1996) also extinct from Nepal. Various searches in the last decade stated the occurrence of the wild yak in Nepal. Wild failed to document its presence. In Humla district, far- yak is said to inhabit the areas north of the Himalayas western Nepal, we used observation from transects and (Jerdon 1874, Hinton and Fry 1923), which also include vantage points, sign survey on trails, and informal dis- Limi Valley. Skins and horns were sporadically discov- cussions to ascertain the presence of wild yak in 2013 ered by explorers in the Himalayan and trans-Himala- (May–June) and 2014 (June–July). Direct sightings of two yan region of the country. These include evidence of individuals and hoof marks, dung piles, pelts, and head three horns of the species (around four decades old) of an individual killed in 2012 confirmed its presence. that can still be found in Lo Manthang (two pairs of The wild yak has an uncertain national status with con- horn) and Tsaile (one pair of horns) of Upper Mustang firmed records only from Humla district. -
Field Guide Mammals of Ladakh ¾-Hðgå-ÅÛ-Hýh-ºiô-;Ým-Mû-Ç+Ô¼-¾-Zçàz-Çeômü
Field Guide Mammals of Ladakh ¾-hÐGÅ-ÅÛ-hÝh-ºIô-;Ým-mÛ-Ç+ô¼-¾-zÇÀz-Çeômü Tahir Shawl Jigmet Takpa Phuntsog Tashi Yamini Panchaksharam 2 FOREWORD Ladakh is one of the most wonderful places on earth with unique biodiversity. I have the privilege of forwarding the fi eld guide on mammals of Ladakh which is part of a series of bilingual (English and Ladakhi) fi eld guides developed by WWF-India. It is not just because of my involvement in the conservation issues of the state of Jammu & Kashmir, but I am impressed with the Ladakhi version of the Field Guide. As the Field Guide has been specially produced for the local youth, I hope that the Guide will help in conserving the unique mammal species of Ladakh. I also hope that the Guide will become a companion for every nature lover visiting Ladakh. I commend the efforts of the authors in bringing out this unique publication. A K Srivastava, IFS Chief Wildlife Warden, Govt. of Jammu & Kashmir 3 ÇSôm-zXôhü ¾-hÐGÅ-mÛ-ºWÛG-dïm-mP-¾-ÆôG-VGÅ-Ço-±ôGÅ-»ôh-źÛ-GmÅ-Å-h¤ÛGÅ-zž-ŸÛG-»Ûm-môGü ¾-hÐGÅ-ÅÛ-Å-GmÅ-;Ým-¾-»ôh-qºÛ-Åï¤Å-Tm-±P-¤ºÛ-MãÅ-‚Å-q-ºhÛ-¾-ÇSôm-zXôh-‚ô-‚Å- qôºÛ-PºÛ-¾Å-ºGm-»Ûm-môGü ºÛ-zô-P-¼P-W¤-¤Þ-;-ÁÛ-¤Û¼-¼Û-¼P-zŸÛm-D¤-ÆâP-Bôz-hP- ºƒï¾-»ôh-¤Dm-qôÅ-‚Å-¼ï-¤m-q-ºÛ-zô-¾-hÐGÅ-ÅÛ-Ç+h-hï-mP-P-»ôh-‚Å-qôº-È-¾Å-bï-»P- zÁh- »ôPÅü Åï¤Å-Tm-±P-¤ºÛ-MãÅ-‚ô-‚Å-qô-h¤ÛGÅ-zž-¾ÛÅ-GŸôm-mÝ-;Ým-¾-wm-‚Å-¾-ºwÛP-yï-»Ûm- môG ºô-zôºÛ-;-mÅ-¾-hÐGÅ-ÅÛ-h¤ÛGÅ-zž-Tm-mÛ-Åï¤Å-Tm-ÆâP-BôzÅ-¾-wm-qºÛ-¼Û-zô-»Ûm- hôm-m-®ôGÅ-¾ü ¼P-zŸÛm-D¤Å-¾-ºfh-qô-»ôh-¤Dm-±P-¤-¾ºP-wm-fôGÅ-qºÛ-¼ï-z-»Ûmü ºhÛ-®ßGÅ-ºô-zM¾-¤²h-hï-ºƒÛ-¤Dm-mÛ-ºhÛ-hqï-V-zô-q¼-¾-zMz-Çeï-Çtï¾-hGôÅ-»Ûm-môG Íï-;ï-ÁÙÛ-¶Å-b-z-ͺÛ-Íïw-ÍôÅ- mGÅ-±ôGÅ-Åï¤Å-Tm-ÆâP-Bôz-Çkï-DG-GÛ-hqôm-qô-G®ô-zô-W¤- ¤Þ-;ÁÛ-¤Û¼-GŸÝP.ü 4 5 ACKNOWLEDGEMENTS The fi eld guide is the result of exhaustive work by a large number of people. -
Surveys at a Tibetan Antelope Pantholops Hodgsonii Calving Ground Adjacent to the Arjinshan Nature Reserve, Xinjiang, China: Decline and Recovery of a Population
Surveys at a Tibetan antelope Pantholops hodgsonii calving ground adjacent to the Arjinshan Nature Reserve, Xinjiang, China: decline and recovery of a population W illiamV.Bleisch,PaulJ.Buzzard,HuibinZ hang,DonghuaX U¨ ,ZhihuL iu W eidong L i and H owman W ong Abstract Females in most populations of chiru or Tibetan Leslie & Schaller, 2008). Despite the remoteness of chiru antelope Pantholops hodgsonii migrate each year up to 350 km habitat, however, there was an upsurge in poaching during to summer calving grounds, and these migrations charac- the 1980s and 1990s for its extraordinarily fine wool known terize the Tibet/Qinghai Plateau. We studied the migratory as shahtoosh (Wright & Kumar, 1998). Poaching raised the chiru population at the Ullughusu calving grounds south- threat of extirpation for many chiru populations (Harris west of the Arjinshan Nature Reserve in Xinjiang, China. et al., 1999; Bleisch et al., 2004; Fauna & Flora International, 2 The 750–1,000 km of suitable habitat at Ullughusu is at 2004). Competition with livestock for grazing has been and 4,500–5,000 m with sparse vegetation. We used direct meth- continues to be a threat and, more recently, infrastructure ods (block counts, vehicle and walking transects and radial development, fencing of pasture and gold mining have point sampling) and an indirect method (pellet counts) become increasing problems (Bleisch et al., 2004; Fauna & during six summers to assess population density. We also Flora International, 2004; Xia et al., 2007; Fox et al., 2009). witnessed and stopped two major poaching events, in 1998 Chiru are categorized on the IUCN Red List as Endangered and 1999 (103 and 909 carcasses, respectively). -
Phylogeographical Analyses of Domestic and Wild Yaks
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Digital.CSIC RIGIN AL Phylogeographical analyses of domestic AR TI C L E and wild yaks based on mitochondrial DNA: new data and reappraisal Zhaofeng Wang1†, Xin Shen2†, Bin Liu2†, Jianping Su3†, Takahiro Yonezawa4, Yun Yu2, Songchang Guo3, Simon Y. W. Ho5, Carles Vila` 6, Masami Hasegawa4 and Jianquan Liu1* 1Molecular Ecology Group, Key Laboratory of AB STRACT Arid and Grassland Ecology, School of Life Science, Lanzhou University, Lanzhou 730000, Aim We aimed to examine the phylogeographical structure and demographic 2 history of domestic and wild yaks ( ) based on a wide range of Gansu, China, Beijing Genomics Institute, Bos grunniens Chinese Academy of Sciences, Beijing 101300, samples and complete mitochondrial genomic sequences. 3 China, Key Laboratory of Evolution and Location The Qinghai-Tibetan Plateau (QTP) of western China. Adaptation of Plateau Biota, Northwest Plateau Institute of Biology, Chinese Academy Methods All available D-loop sequences for 405 domesticated yaks and 47 wild of Sciences, Xining 810001, Qinghai, China, yaks were examined, including new sequences from 96 domestic and 34 wild yaks. 4School of Life Sciences, Fudan University, We further sequenced the complete mitochondrial genomes of 48 domesticated Shanghai 200433, China, 5Centre for and 21 wild yaks. Phylogeographical analyses were performed using the Macroevolution and Macroecology, Research mitochondrial D-loop and the total genome datasets. School of Biology, Australian National Results We recovered a total of 123 haplotypes based on the D-loop sequences University, Canberra, ACT 0200, Australia, in wild and domestic yaks. -
Of the Chang Tang Wildlife Reserve in Tibet
RANGELANDS 18(3), June 1996 91 Rangelands of the Chang Tang Wildlife Reserve in Tibet Daniel J. Millerand George B. Schaller eastern part of the cious steppes and mountains that Chang Tang Reserve sweep along northern Tibet for almost based on our research in 800 miles east to west. The chang the fall of 1993 and sum- tang, a vast and vigorous landscape mer of 1994. We also comparable in size to the Great Plains discuss conservation of North America, is one of the highest, issues facing the reserve most remote and least known range- and the implications lands of the world. The land is too cold these have for develop- and arid to support forests and agricul- ment, management and ture; vegetation is dominated by cold- conservation. desert grasslands,with a sparse cover of grasses, sedges, forbs and low shrubs. It is one of the world's last Descriptionand great wildernessareas. Location The Chang Tang Wildlife Reserve was established by the Tibetan Located in the north- Autonomous governmentin of the Region western part 1993 to protect Tibet's last, major Tibetan Autonomous wildlife populationsand the grasslands Region (see Map 1), the depend upon. In the wildernessof Reserve they Chang Tang the Chang Tang Reservelarge herdsof encompasses approxi- Tibetan antelope still follow ancient mately 110,000 square trails on their annual migrationroutes to A nomad bundled the wind while Tibetan lady up against miles, (an area about birthing grounds in the far north. Wild herding. of the size Arizona), yaks, exterminated in most of Tibet, and is the second in maintain their last stronghold in the he Chang Tang Wildlife Reserve, area in the world. -
Structural Characterisation of Toll-Like Receptor 1 (TLR1) and Toll-Like
RVC OPEN ACCESS REPOSITORY – COPYRIGHT NOTICE This is the peer-reviewed, manuscript version of the following article: Woodman, S., Gibson, A. J., García, A. R., Contreras, G. S., Rossen, J. W., Werling, D. and Offord, V. (2016) 'Structural characterisation of Toll-like receptor 1 (TLR1) and Toll-like receptor 6 (TLR6) in elephant and harbor seals', Veterinary Immunology and Immunopathology, 169, 10-14. The final version is available online via http://dx.doi.org/10.1016/j.vetimm.2015.11.006. © 2016. This manuscript version is made available under the CC-BY-NC-ND 4.0 license http://creativecommons.org/licenses/by-nc-nd/4.0/. The full details of the published version of the article are as follows: TITLE: Structural characterisation of Toll-like receptor 1 (TLR1) and Toll-like receptor 6 (TLR6) in elephant and harbor seals AUTHORS: Woodman, S., Gibson, A. J., García, A. R., Contreras, G. S., Rossen, J. W., Werling, D. and Offord, V. JOURNAL TITLE: Veterinary Immunology and Immunopathology VOLUME: 169 PUBLISHER: Elsevier PUBLICATION DATE: January 2016 DOI: 10.1016/j.vetimm.2015.11.006 1 Structural characterisation of Toll-like receptor 1 (TLR1) and Toll-like receptor 6 (TLR6) in 2 elephant and harbor seals 3 4 Sally Woodman1,Amanda J. Gibson1, Ana Rubio García2, Guillermo Sanchez Contreras2, John W. 5 Rossen3, Dirk Werling1, Victoria Offord1,* 6 7 1Molecular Immunology Group, Department of Pathology and Pathogen Biology, Royal Veterinary 8 College, Hawkshead Lane, Hatfield, AL9 7TA, UK; 9 2Veterinary Department, Seal Rehabilitation and Research Centre (SRRC), Pieterburen, The 10 Netherlands; 11 3Department of Medical Microbiology, University of Groningen, University Medical Center 12 Groningen, Groningen, the Netherlands; 13 * Corresponding author at the Research Support Office, Royal Veterinary College, Hawkshead Lane, 14 Hatfield, AL9 7TA, UK Tel: ++44 1707 667038; E-Mail: [email protected] 15 16 1 1 Abstract 2 Pinnipeds are a diverse clade of semi-aquatic mammals, which act as key indicators of ecosystem health. -
Genetic Variation of Mitochondrial DNA Within Domestic Yak Populations J.F
Genetic variation of mitochondrial DNA within domestic yak populations J.F. Bailey,1 B. Healy,1 H. Jianlin,2 L. Sherchand,3 S.L. Pradhan,4 T. Tsendsuren,5 J.M. Foggin,6 C. Gaillard,7 D. Steane,8 I. Zakharov 9 and D.G. Bradley1 1. Department of Genetics, Trinity College, Dublin 2, Ireland 2. Department of Animal Science, Gansu Agricultural University, Lanzhou 730070, Gansu, P.R. China 3. Livestock Production Division, Department of Livestock Services, Harihar Bhawan, Pulchowk, Nepal 4. Resource Development Advisor, Nepal–Australia Community Resource Management Project, Kathmandu, Nepal 5. Institute of Biology, Academy of Sciences of Mongolia, Ulaan Baatar, Mongolia 6. Department of Biology, Arizona State University, Tempe, AZ 85287–1501 USA 7. Institute of Animal Breeding, University of Berne, Bremgarten-strasse 109a, CH-3012 Berne, Switzerland 8. FAO (Food and Agricultural Organization of the United Nations) Regional Office for Asia and the Pacific, 39 Phra Atit Road, Bangkok 10200, Thailand 9. Vavilov Institute of General Genetics Russian Academy of Sciences, Gubkin str., 3, 117809 GSP-1, Moscow B-333, Russia Summary Yak (Bos grunniens) are members of the Artiodactyla, family Bovidae, genus Bos. Wild yak are first observed at Pleistocene levels of the fossil record. We believed that they, together with the closely related species of Bos taurus, B. indicus and Bison bison, resulted from a rapid radiation of the genus towards the end of the Miocene. Today domestic yak live a fragile existence in a harsh environment. Their fitness for this environment is vital to their survival and to the millions of pastoralists who depend upon them. -
Research Article the Carboniferous Arc of the North Pamir
GeoScienceWorld Lithosphere Volume 2021, Article ID 6697858, 26 pages https://doi.org/10.2113/2021/6697858 Research Article The Carboniferous Arc of the North Pamir 1 1 2 3 4 Johannes Rembe , Edward R. Sobel , Jonas Kley , Renjie Zhou , Rasmus Thiede , 5 and Jie Chen 1Institute of Geosciences, University of Potsdam, 14476 Golm Potsdam, Germany 2Department of Structural Geology and Geodynamics, Georg-August-Universität Göttingen, 37077 Göttingen, Germany 3School of Earth and Environmental Sciences, The University of Queensland, St. Lucia QLD 4072, Australia 4Institute for Geosciences, Christian-Albrechts-Universität Kiel, 24118 Kiel, Germany 5State Key Laboratory of Earthquake Dynamics, Institute of Geology, China Earthquake Administration, X9GJ+RV Chaoyang, Beijing, China Correspondence should be addressed to Johannes Rembe; [email protected] Received 28 October 2020; Accepted 7 January 2021; Published 8 February 2021 Academic Editor: Pierre Valla Copyright © 2021 Johannes Rembe et al. Exclusive Licensee GeoScienceWorld. Distributed under a Creative Commons Attribution License (CC BY 4.0). In this study, we investigate the age and geochemical variability of volcanic arc rocks found in the Chinese, Kyrgyz, and Tajik North Pamir in Central Asia. New geochemical and geochronological data together with compiled data from the literature give a holistic view of an early to mid-Carboniferous intraoceanic arc preserved in the northeastern Pamir. This North Pamir volcanic arc complex involves continental slivers in its western reaches and transforms into a Cordilleran-style collision zone with arc- magmatic rocks. These are hosted in part by Devonian to Carboniferous oceanic crust and the metamorphic Kurguvad basement block of Ediacaran age (maximum deposition age) in Tajikistan. -
Studies on Ethnic Groups in China
Kolas&Thowsen, Margins 1/4/05 4:10 PM Page i studies on ethnic groups in china Stevan Harrell, Editor Kolas&Thowsen, Margins 1/4/05 4:10 PM Page ii studies on ethnic groups in china Cultural Encounters on China’s Ethnic Frontiers Edited by Stevan Harrell Guest People: Hakka Identity in China and Abroad Edited by Nicole Constable Familiar Strangers: A History of Muslims in Northwest China Jonathan N. Lipman Lessons in Being Chinese: Minority Education and Ethnic Identity in Southwest China Mette Halskov Hansen Manchus and Han: Ethnic Relations and Political Power in Late Qing and Early Republican China, 1861–1928 Edward J. M. Rhoads Ways of Being Ethnic in Southwest China Stevan Harrell Governing China’s Multiethnic Frontiers Edited by Morris Rossabi On the Margins of Tibet: Cultural Survival on the Sino-Tibetan Frontier Åshild Kolås and Monika P. Thowsen Kolas&Thowsen, Margins 1/4/05 4:10 PM Page iii ON THE MARGINS OF TIBET Cultural Survival on the Sino-Tibetan Frontier Åshild Kolås and Monika P. Thowsen UNIVERSITY OF WASHINGTON PRESS Seattle and London Kolas&Thowsen, Margins 1/7/05 12:47 PM Page iv this publication was supported in part by the donald r. ellegood international publications endowment. Copyright © 2005 by the University of Washington Press Printed in United States of America Designed by Pamela Canell 12 11 10 09 08 07 06 05 5 4 3 2 1 All rights reserved. No part of this publication may be repro- duced or transmitted in any form or by any means, electronic or mechanical, including photocopy, recording, or any infor- mation storage or retrieval system, without permission in writ- ing from the publisher. -
Himalayan Journal of Sciences Vol 2 Issue 4 (Special Issue) July 2004
EXTENDED ABSTRACTS: 19TH HIMALAYA-KARAKORAM-TIBET WORKSHOP, 2004, NISEKO, JAPAN Northeastward growth and uplift of the Tibetan Plateau: Tectonic- sedimentary evolution insights from Cenozoic Hoh Xil, Qaidam and Hexi Corridor basins Chengshan Wang†‡*, Zhifei Liu§ and Lidong Zhu† † State Key Laboratory of Oil and Gas Reservoir Geology and Exploitation, Chengdu University of Technology, Chengdu 610059, CHINA ‡ China Univesity of Geosciences, Beijing 100083, CHINA § Laboratory of Marine Geology, Tongji University, Shanghai 200092, CHINA * To whom correspondence should be addressed. E-mail: [email protected] .................................................................................................................................................................................................................................................................... The northeastward growth of the Tibetan Plateau was addressed distributed clastic sediments. The Hexi Corridor Basin was as a major uplift process of Northeast Tibet, deduced mainly from formed under the Altyn Tagh Fault activity as a strike-slip basin the Qaidam, Gonghe-Guide, and Hexi Corridor basins (Métivier started from 37.7 Ma. During 30.3-0.13 Ma period, with the et al. 1998; Pares et al. 2003). These studies contributed to a movement of the Qilian orogen, the basin depocenter shifted significant in understanding of the crustal thickening and oblique southwards to the mountain edge that indicates the formation stepwise rise of Plio-Quaternary Tibet (Meyer et al. 1998; of a foreland basin. From 0.13 Ma, the basin has evolved into an Tapponnier et al. 2001). But sedimentary basins in central Tibet intermontane basin with a less than 100 m thick sediments. still remain less studied because of harsh conditions for fieldwork. The three Cenozoic sedimentary basins have a similar The Hoh Xil Basin, as the largest Cenozoic sedimentary basin in tectonic-sedimentary history, i.e. -
Quantifying Landscape Differences Across the Tibetan Plateau: Implications for Topographic Relief Evolution J
JOURNAL OF GEOPHYSICAL RESEARCH, VOL. 113, F04018, doi:10.1029/2007JF000897, 2008 Quantifying landscape differences across the Tibetan plateau: Implications for topographic relief evolution J. Liu-Zeng,1,2 P. Tapponnier,2 Y. Gaudemer,2 and L. Ding1 Received 28 August 2007; revised 4 September 2008; accepted 14 October 2008; published 31 December 2008. [1] We quantify the bulk topographic characteristics of the Tibet-Qinghai plateau with specific focus on three representative regions: northern, central, and southeastern Tibet. Quantitative landscape information is extracted from Shuttle Radar Topography Mission digital elevation models. We find that the morphology of the Tibetan plateau is nonuniform with systematic regional differences. The northern and central parts of the plateau are characterized by what we suggest to call ‘‘positive topography,’’ i.e., a topography in which elevation is positively correlated with relief and mean slope. A major change from the internally drained central part of Tibet to the externally drained part of eastern Tibet is accompanied by a transition from low to high relief and from positive to ‘‘negative topography,’’ i.e., a topography where there is an inverse or negative correlation between elevation and relief and between elevation and mean slope. Relief in eastern Tibet is largest along rivers as they cross an ancient, eroded plateau margin at high angle to the major strike-slip faults, the Yalong-Yulong thrust belt, implying strong structural control of regional topography. We propose that the evolution of river systems and drainage efficiency, the ability of rivers to transport sediments out of the orogen, coupled with tectonic uplift, is the simplest mechanism to explain systematic regional differences in Tibetan landscapes.