Regional Assessment of the Virtual Water of Sheep and Goats in Arid Areas
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Inheritance of Down Hair and Live Weight Traits for Inner Mongolia Cashmere Goats in China
7th World Congress on Genetics Applied to Livestock Production, August 19-23, 2002, Montpellier, France INHERITANCE OF DOWN HAIR AND LIVE WEIGHT TRAITS FOR INNER MONGOLIA CASHMERE GOATS IN CHINA H. Zhou1 and D. Allain2 1 The College of Biotechnology, Inner Mongolia Agricultural University, Hohhot 010018, China 2 INRA, Station d’Amélioration Génétique des Animaux, Castanet Tolosan 31326, France INTRODUCTION China is the largest producer and exporter of cashmere in the world. And Inner Mongolia cashmere goats, a large population of 13 million individuals, are the country’s most important contributors to the cashmere production, and economic earners, which provides approximately 30% of the world’s cashmere. The further enhancement of the fibre quality is necessary for the competition in the world market. Therefore, better control of the quality is of importance for cashmere production to satisfy the consumer’s requirements for a consistently desirable product. Knowledge of the extent of genetic variability is a prerequisite for the genetic improvement of the primary traits. Some genetic parameters and genetic correlation or phenotypic correlation amongst particular traits in some breeds of cashmere goat have been estimated (Patties et al., 1989 ; Baker et al., 1991 ; Rose et al., 1992 ; Bigham et al., 1993 ; Ning et al., 1995). However, there is little scientific literature available on the genetic background of main production traits in Inner Mongolia cashmere goat, which requires an analysis on variance component estimates and accurate genetic parameter evaluation under animal models in characteristics for the seed-stock selection and progress of genetic improvement in Inner Mongolia cashmere goats. MATERIALS AND METHODS Data and animals. -
UK Water Footprint: the Impact of the UK’S Food and Fibre Consumption on Global Water Resources Volume Two: Appendices
UK Water Footprint: the impact of the UK’s food and fibre consumption on global water resources Volume two: appendices Ashok Chapagain Stuart Orr Contents Volume two: appendices a. acronyms and abbreviations 3 b. methods 4 c. data sources 13 d. virtual water flows to the uk by product 14 e. water footprint of the uk by product category 28 f. the water footprint of nations (2000-04) 31 2 Appendix A: Acronyms and Abbreviations BOD Biological Oxygen Demand COD Chemical Oxygen Demand DEFRA Department for Environment, Food and Rural Affairs DFID Department for International Development EF Ecological Footprint FAO Food and Agriculture Organization Gm3 Billion cubic meters GNI Gross National Income ITC International Trade centre Mm3 Million cubic meters NGO Non-Governmental organisation PC-TAS Personal Computer Trade Analysis System of the ITC UNESCO-WWAP UNESCO- World Water Assessment Programme UNESCO United Nations Educational, Scientific and Cultural Organization VWC Virtual water content WF Water Footprint WFD Water Framework Directive WWF World Wildlife Fund 3 Appendix B: Methods The WF is the cumulative amount of water consumed directly (drinking and service water use) or indirectly (water used to produce goods consumed). The indirect water use is quantified at the locations where production takes place, not at locations where products are consumed. Before quantifying the WF of a product, we need to analyse the virtual water content of that product which distinguishes the kind of water used in the production process. Virtual water content of a primary crop A major part of the following section is drawn upon the methodology presented in Chapagain 3 and Orr (2008).The virtual water content of a primary crop VWCc (m /t) is calculated as the ratio 3 of the volume of water used for crop production WUc (m /ha), to the volume of crop produced, Yc (t/ha). -
RAPD Variation and Genetic Distances Among Tibetan, Inner Mongolia and Liaoning Cashmere Goats
1520 RAPD Variation and Genetic Distances among Tibetan, Inner Mongolia and Liaoning Cashmere Goats Shilin Chen1* , Menghua Li, Yongjun Li허, Shuhong Zhao*, Chuanzhou Yu, Mei Yu, Bin Fan and Kui Li Laboratory of Molecular Biology & Animal Breeding, School of Animal Science and Veterinary Medicine Huazhong Agricultural University, Wuhan, 430070, P. R. China ABSTRACT : Relationship among Tibetan cashmere goats, Inner Mongolia cashmere goats and Liaoning cashmere goats was studied using the technique of random amplified polymorphic DNA (RAPD). One primer and four primer combinations were screened. With the five primers and primer combinations, DNA fragments were amplified from the three breeds. Each breed has 28 samples. According to their RAPD fingerprint maps, the Nei's (1972) standard genetic distance was: 0.0876 between Tibetan cashmere goats and Inner Mongolia cashmere goats, 0.1601 between Tibetan cashmere goats and Liaoning cashmere goats, 0.0803 between the Inner Mongolia cashmere goats and Liaoning cashmere goats. It coincides with their geographic location. The genetic heterogeneity of Tibetan cashmere goats, Inner Mongolia cashmere goats and Liaoning cashmere goats is 0.3266, 0.2622 and 0.2475 respectively. It is also consistent with their development history. (Asian-Aust, J. Anint Sei. 2001, Vol 14, No. 11:1520-1522) Key Words : Tibetan Cashmere Goats, Inner Mongolia Cashmere Goats, Liaoning Cashmere Goats, RAPD, Genetic Heterogeneity, Genetic Distance INTRODUCTION The Tibetan were from the Baitu county cashmere goats keeping farm in Ali territory, Tibetan; The Inner Mongolia Cashmere goats originate from Tibet, Middle Asia and were from the Inner Mongolia cashmere goats keeping other inner Asian areas (Seng, 1997; Jia et al., 1997). -
Water Footprint and Virtual Water Trade: the Birth and Growth of a New Research Field in Spain
water Article Water Footprint and Virtual Water Trade: The Birth and Growth of a New Research Field in Spain Maite M. Aldaya 1,* , Alberto Garrido 2,3 and Ramón Llamas 3,4 1 Institute for Innovation & Sustainable Development in the Food Chain (IS-FOOD), Public University of Navarra (UPNA), Jerónimo de Ayanz Centre, Arrosadia Campus, 31006 Pamplona, Spain 2 Research Center for the Management of Environmental and Agricultural Risks (CEIGRAM), Universidad Politécnica de Madrid, Complutense Avenue, 28040 Madrid, Spain; [email protected] 3 Water Observatory, Botín Foundation, Castelló 18C, 28001 Madrid, Spain; [email protected] 4 Royal Academy of Sciences of Spain, Valverde 22, 28004 Madrid, Spain * Correspondence: [email protected] Received: 31 August 2020; Accepted: 14 September 2020; Published: 21 September 2020 Abstract: The growth in the number of studies applying and expanding the concepts of the water footprint and virtual water trade in Spain has generated a wealth of lessons and reflections about the scarcity, allocation, productive use, and management of water from the viewpoint of a semi-arid country. This paper reviews the evolution of this research field in Spain since its introduction in 2005 and reflects on its main contributions and issues of debate. It shows how these concepts can be useful tools for integrated water accounting and raising awareness, when used with certain precautions: (1) Supply-chain thinking, taking into account value chains and the implications of trade, generally ignored in water management, can help to address water scarcity issues and sustainable water use. (2) Green water accounting incorporates land use and soil management, which greatly influences hydrological functioning. -
Virtual Water and Water Footprints: Overreaching Into the Discourse on Sustainability, Efficiency, and Equity
www.water-alternatives.org Volume 8 | Issue 3 Wichelns, D. 2015. Virtual water and water footprints: Overreaching into the discourse on sustainability, efficiency, and equity. Water Alternatives 8(3): 396-414 Virtual Water and Water Footprints: Overreaching Into the Discourse on Sustainability, Efficiency, and Equity Dennis Wichelns Bloomington, Indiana, USA; [email protected] ABSTRACT: The notions of virtual water and water footprints were introduced originally to bring attention to the large amounts of water required to produce crops and livestock. Recently, several authors have begun applying those notions in efforts to describe efficiency, equity, and the sustainability of resources and production activities. In this paper, I describe why the notions of virtual water and water footprints are not appropriate for analysing issues pertaining to those topics. Both notions lack a supporting conceptual framework and they contain too little information to enhance understanding of important policy issues. Neither notion accounts for the opportunity cost or scarcity value of water in any setting, or the impacts of water availability and use on livelihoods. In addition, countries trade in goods and services – not in crop and livestock water requirements. Thus, the notions of virtual water and water footprints cannot provide helpful insight regarding the sustainability of water use, economic efficiency, or social equity. Gaining such insight requires the application of legitimate conceptual frameworks, representing a broad range of perspectives from the physical and social sciences, with due consideration of dynamics, uncertainty, and the impacts of policy choices on livelihoods and natural resources. KEYWORDS: Agriculture, economics, food security, livelihoods, risk, trade, uncertainty INTRODUCTION The notion of virtual water was first presented as an interesting description of how arid countries satisfy their annual food demands by importing substantial amounts of grain and other products (Allan, 1996, 2002). -
The Water Footprints of Rice Consumption
A.K. Chapagain The green, blue and grey A.Y. Hoekstra water footprint of rice March 2010 from both a production and consumption perspective Value of Water Research Report Series No. 40 THE GREEN, BLUE AND GREY WATER FOOTPRINT OF RICE FROM BOTH A PRODUCTION AND CONSUMPTION PERSPECTIVE 1 A.K. CHAPAGAIN 2 A.Y. HOEKSTRA MARCH 2010 VALUE OF WATER RESEARCH REPORT SERIES NO. 40 1 WWF-UK, Godalming, United Kingdom, email: [email protected] 2 University of Twente, Enschede, Netherlands, email: [email protected] The Value of Water Research Report Series is published by UNESCO-IHE Institute for Water Education, Delft, the Netherlands in collaboration with University of Twente, Enschede, the Netherlands, and Delft University of Technology, Delft, the Netherlands Contents Summary.................................................................................................................................................................5 1. Introduction ........................................................................................................................................................7 2. Method and data .................................................................................................................................................9 3. Water footprint of rice production....................................................................................................................19 4. International virtual water flows related to rice trade.......................................................................................23 -
Value of Water Research Report Series No. 49 the Water Footprint of Soy Milk and Soy Burger and Equivalent Animal Products Value
A.E. Ercin The water footprint of M.M. Aldaya soy milk and soy burger and A.Y. Hoekstra equivalent animal products February 2011 Value of Water Research Report Series No. 49 THE WATER FOOTPRINT OF SOY MILK AND SOY BURGER AND EQUIVALENT ANIMAL PRODUCTS 1 A.E. ERCIN 2 M.M. ALDAYA 1 A.Y. HOEKSTRA FEBRUARY 2011 VALUE OF WATER RESEARCH REPORT SERIES NO. 49 1 Twente Water Centre, University of Twente, Enschede, The Netherlands; corresponding author: Arjen Hoekstra, e-mail [email protected] 2 United Nations Environment Programme, Division of Technology, Industry and Economics, Sustainable Consumption and Production Branch, Paris, France © 2011 A.E. Ercin, M.M. Aldaya and A.Y. Hoekstra. Published by: UNESCO-IHE Institute for Water Education P.O. Box 3015 2601 DA Delft The Netherlands The Value of Water Research Report Series is published by UNESCO-IHE Institute for Water Education, in collaboration with University of Twente, Enschede, and Delft University of Technology, Delft. All rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording or otherwise, without the prior permission of the authors. Printing the electronic version for personal use is allowed. Please cite this publication as follows: Ercin, A.E., Aldaya, M.M and Hoekstra, A.Y. (2011) The water footprint of soy milk and soy burger and equivalent animal products, Value of Water Research Report Series No. 49, UNESCO-IHE, Delft, the Netherlands. Contents Summary................................................................................................................................................................. 5 1. Introduction ........................................................................................................................................................ 7 2. -
WATER FOOTPRINT in PORTUGAL an Analysis of the External Footprint of Consumption
WATER FOOTPRINT IN PORTUGAL 2011 An analysis of the external footprint of consumption Chris Martin Bahr/WWF-Canon © WATER FOOTPRINT IN PORTUGAL An analysis of the external footprint of consumption . 1 - Introduction……………………………….. 1 . 2 - External Footprint………………...……3 . 3 - Case Studies………………………………...6 . 3.1 - Cotton…………………………………….…….7 . 3.2 - Soybeans…………………………………....12 . 3.3 - Livestock………………………………….…16 . 3.4 - Olives………………………………………....19 . 3.5 - Spain……………………………………..……22 . 4 - Recommendations………………....25 . 4.1 - Governments…………………………….…25 . 4.2 - Businesses……………………………….….26 . 4.3 - Citizens…………………………………….…27 . 5 - WWF work………………………………....28 . 6 - Conclusions…………………………………29 . References………………………………………....30 1. INTRODUCTION The first Water Footprint (WF) report for Portugal was published by the WWF Mediterranean Programme Office in February 2010. This first report considered the general values of WF derived from the work of Hoekstra and Chapagain (2004), as presented in Table 1 and Figure 1. Table 1 shows that the main component of Portugal’s WF is green water – in a broad sense, rainfall water embedded in crops. Blue Green Grey Urban Agriculture Industry Internal External supply 6.210 1.090 2.030 8.000 10.550 600 Table 1 - Main components of Portugal’s water footprint (hm³/yr) - Blue Water: Direct abstraction of water from internal surface and groundwater sources (mainly reservoirs and aquifers). It is the volume accounted for in traditional water resources management, and requires technological inputs. - Green Water: Rainfall water used for crop evapotranspiration, which is directly dependent on precipitation, potential evaporation, and crop requirements. - Grey Water: Clean water needed to dilute or purify polluted and wastewater. Harder to estimate, as it is quite dependent on the numerous chemical parameters of such waters, and its monitoring is poorer. -
Identification Guidelines for Shahtoosh & Pashmina
Shahtoosh (aka Shah tush) is the trade name for woolen garments, usually shawls, made from the hair of the Tibetan antelope (Pantholops hodgsonii). Also called a chiru, it is considered an endangered species, and the importation of any part or product of Pantholops is prohib- ited by U.S. law. Chiru originate in the high Himalaya Mountains of Tibet, western China, and far northern India where they are killed for their parts. Their pelts are converted into shahtoosh, and horns of the males are taken as trophies. No chirus are kept in captivity, and it reportedly takes three to five individuals to make a single shawl (Wright & Kumar 1997). Trophy Head with Horns of male Pantholops hodgsonii SHAWL COLORS Off-white and brownish beige are the natural colors of the chiru’s pelage. Shahtoosh shawls in these natural colors are the most traditional. How- ever, shahtoosh can be dyed almost any color of the spectrum. Unless the fibers are dyed opaque black, most dyed fibers allow the transmission of light so that the internal characteristics are visible under a compound microscope. (See "Microscopic Characteristics" in Hints for Visual Identification.) DIFFERENT PATTERNS AND/OR DECORATION SIZES - Solid color - Standard shawl 36" x 81" - Plaid - Muffler 12" x 60" - Stripes - Man-size, Blanket 108" x 54" - Edged in wispy fringe - Couturier length (4' x 18' +) - Double color (each side of shawl is a different color) - All-over embroidery APPROXIMATE PRICE RANGES Cost Wholesale Retail Plain $550-$1,000 $700-$2,500 $1,500-$2,450 Pastels $700-$850 $1,300-$2,600 $1,800-$3,000 Checks/Plaids $600-$1,500 $800-$1,180 $1,300-$2,450 Stripe $600-$800 $1,300-$1,800 $2,450-$3,200 Double color $800-$1,000 $1,380-$2,800 $2,100-$3,200 Border embroidery $850-$3,050 $1,080-$1,600 $1,500-$3,200 All-over embroidery $800-$5,000 $1,380-$5,500 $3,000-$6,500 White $1,800 $2,300 $4,600 Above prices are for standard size shawls in year 2000. -
Virtual Water Trade - Conscious Choices, March 2004
Synthesis WWC Publication No. 2 E-Conference Synthesis: Virtual Water Trade - Conscious Choices March 2004 Edited by the World Water Council The views and opinions of workshop participants that are presented herein do not necessarily reflect those of their respective departments, agencies, or institutions nor those of the World Water Council. They may not be used for advertising or product endorsement purposes. The World Water Council does not endorse or recommend any commercial products, processes or services. Copyright © World Water Council, 2004 ISBN: 92-95017-10-2 To order: [email protected] This report can be cited as follows: World Water Council. 2004. E-Conference Synthesis: Virtual Water Trade - Conscious Choices, March 2004. World Water Council E-Conference Synthesis: Virtual Water Trade – Conscious Choices This E-conference is a contribution of the World Water Council to the Dialogue on Water, Food and Environment. Foreword The World Water Council is engaged in stimulating debate and research on the implications of using virtual water trade as a strategic instrument in water policy. The session on Virtual Water – Trade and Geopolitics on March th rd 17 , 2003,during the 3 World Water Forum, The origin of the concept of Virtual Water was the first major activity and attracted much attention from many different groups of The concept of Virtual Water was coined in London in about late 1994 some years after society. However, the limited time available finding that the term 'embedded water' did not did not allow for extensive debate on the have much impact. The idea is derived from many issues and impacts of virtual water Israeli analysis by Gideon Fishelson et al in the trade that were brought up during the late 1980s which pointed out that exporting session. -
Virtual Water Trade of Agricultural Products: a New Perspective to Explore the Belt and Road
Science of the Total Environment 622–623 (2018) 988–996 Contents lists available at ScienceDirect Science of the Total Environment journal homepage: www.elsevier.com/locate/scitotenv Virtual water trade of agricultural products: A new perspective to explore the Belt and Road Yu Zhang a,b,Jin-HeZhanga,⁎,QingTianc, Ze-Hua Liu a,Hong-LeiZhanga a School of Geographic and Oceanographic Sciences, Nanjing University, Nanjing 210023, China b School of Business and Economics, Linnaeus University, Kalmar 392 34, Sweden c Tongren Polytechnic College, Tongren 554300, China HIGHLIGHTS GRAPHICAL ABSTRACT • Virtual water is a new perspective to ex- plore the Belt and Road. • China was in virtual water trade surplus with the countries along the Belt and Road. • N40 countries had a virtual water trade surplus with China. • The proportion of the grey water foot- print that China exported to the span- ning countries was much higher than that imported. • Virtual water trade with China benefits both the countries along the Belt and Road and China. article info abstract Article history: The Belt and Road is an initiative of cooperation and development that was proposed by China. Moreover, most of Received 18 May 2017 the spanning countries faced water shortages and agriculture consumed a lot of water. Virtual water links water, Received in revised form 8 November 2017 food and trade and is an effective tool to ease water shortages. Therefore, this paper aims to understand the Belt Accepted 29 November 2017 and Road from the new perspective of virtual water trade of agricultural products. We considered agricultural Available online xxxx products trade from 2001 to 2015. -
What Do Virtual Water and Water Footprint Conceal? Water Alternatives 9(1): 162-164
www.water-alternatives.org Volume 9 | Issue 1 Beltrán, M.J. 2016. Response – What do virtual water and water footprint conceal? Water Alternatives 9(1): 162-164 Response – What Do Virtual Water and Water Footprint Conceal? Response to: Wichelns, D. 2015. Virtual Water and Water Footprint: Overreaching into the Discourse on Sustainability, Efficiency and Equity. Vol. 8, No. 3, pp. 396-414. María J. Beltrán Pablo de Olavide University, Economics Department, Sevilla, Spain; and visiting researcher at Centre for Water and Development, SOAS University of London; [email protected] The article recently published by Dennis Wichelns 'Virtual Water and Water Footprint: Overreaching into the Discourse on Sustainability, Efficiency and Equity' analyses why the notions of Virtual Water (VW) and Water Footprint (WF) cannot provide helpful insight in the sustainability of water use, economic efficiency, or social equity. The authorʼs starting point is that the studies on WF and VW flows have moved from insights provided by descriptors of the volumes of water used in production, to prescriptions regarding the topics of sustainability, efficiency and equity. Wichelns discusses the usefulness of these prescriptions examining recent papers that estimate the water footprints of different regions. He concludes that VW and WF approaches contain limited information. Hence, they are not appropriate for determining the optimal use of land and water resources, allocating water among competing users, or analysing the impacts of policy choices on livelihoods and on natural resources. Therefore, additional information regarding the opportunity costs, the scarcity value of water, and the impacts on water availability are needed to provide meaningful assessments on the topics of sustainability, efficiency and equity.