India's Water Future to 2025–2050: Business-As-Usual Scenario And

Total Page:16

File Type:pdf, Size:1020Kb

India's Water Future to 2025–2050: Business-As-Usual Scenario And Research Reports IWMI’s mission is to improve water and land resources management for food, livelihoods and nature. In serving this mission, IWMI concentrates on the integration of policies, technologies and management systems to achieve workable solutions to real problems—practical, relevant results in the field of irrigation and water and land resources. The publications in this series cover a wide range of subjects—from computer modeling to experience with water user associations—and vary in content from directly applicable research to more basic studies, on which applied work ultimately depends. Some research reports are narrowly focused, analytical and detailed empirical studies; others are wide-ranging and synthetic overviews of generic problems. Although most of the reports are published by IWMI staff and their collaborators, we welcome contributions from others. Each report is reviewed internally by IWMI’s own staff and Fellows, and by external reviewers. The reports are published and distributed both in hard copy and electronically (www.iwmi.org) and where possible all data and analyses will be available as separate downloadable files. Reports may be copied freely and cited with due acknowledgment. Research Report 123 India’s Water Future to 2025–2050: Business-as-Usual Scenario and Deviations Upali A. Amarasinghe, Tushaar Shah, Hugh Turral and B. K. Anand International Water Management Institute P O Box 2075, Colombo, Sri Lanka i IWMI receives its principal funding from 58 governments, private foundations, and international and regional organizations known as the Consultative Group on International Agricultural Research (CGIAR). Support is also given by the Governments of Ghana, Pakistan, South Africa, Sri Lanka and Thailand. The authors: Upali A. Amarasinghe is a Senior Researcher and Tushaar Shah a Principal Researcher and Senior Advisor to the Director General, both at the International Water Management Institute office based in India; Hugh Turral was a Principal Researcher and former leader of the Basin Water Management theme of the International Water Management Institute; and B. K. Anand was a consultant to the IWMI-India office in New Delhi. Acknowledgements: Funds provided by the CGIAR Challenge Program on Water and Food made it possible to do this research. The authors thank Charlotte de Fraiture, Head of Basin Water Management Theme of the International Water Management Institute for providing a critical review that helped improve the quality of the report. They also appreciate the comments of many Indian scholars and other participants of various workshops where the initial draft of this report was presented. Amarasinghe, U. A.; Shah, T.; Turral, H.; Anand, B. K. 2007. India’s water future to 2025- 2050: Business-as-usual scenario and deviations. Colombo, Sri Lanka: International Water Management Institute. 47p. (IWMI Research Report 123) / water use / water demand / economic growth / crop production / food security / river basins / water availability / consumption / crop yield / population growth / groundwater irrigation / crops / diversification / policy / simulation models / India / ISSN 1026-0862 ISBN 978-92-9090-687-2 Copyright © 2007, by IWMI. All rights reserved. Cover map generated by Upali Amarasinghe shows the degree of development of Indian river basins under the business-as-usual scenario water supply and demand. The degrees of development in different years are authors’ estimates given in this report. Please send inquiries and comments to: [email protected] Contents Abbreviations and Acronyms iv Summary v Introduction 1 Data and Methodology 2 Business-as-Usual Scenario to 2025–2050: Story Line 4 Business-as-Usual Scenario Projections 10 Other Scenarios: Deviations from BAU 16 Summary and Policy Implications 22 Annexes 25 Glossary 38 References 39 iii iii Abbreviations and Acronyms BAU Business-as-usual Bm3 Billion cubic meters CWC Central Water Commission EFR Environmental flow requirement EMC Environmental management class EWD Environmental water demand FAI Fertilizer Association of India FAO Food and Agriculture Organization of the United Nations FCF Feed conversion factor GCA Gross cropped area GDP Gross domestic product GIA Gross irrigated area GWE Groundwater efficiency GOI Government of India IFPRI International Food Policy Research Institute IWMI International Water Management Institute kcal Kilocalories lpcd Liters per capita per day MAI Moisture availability index MAR Mean annual runoff MFR Minimum flow requirement Mha Million hectares Mmt Million metric tonnes NCIWRD National Commission for Integrated Water Resources Development NGWIA Net groundwater irrigated area NIA Net irrigated area NSA Net surface irrigated area NSSO National Sample Survey Organization PODIUMSIM Policy Dialogue Model Simulation WTO World Trade Organization iv Summary With a rapidly expanding economy many changes Irrigation water withdrawals under the BAU are taking place in India today. Some of these scenario are sufficient to meet most of the future changes will have substantial implications on food demand. The BAU projects a small production India’s water future. Land use, cropping and water surplus of grain crops, and a small production use patterns are changing, partly as responses to deficit of non-grains crops. Overall, the BAU changing demographic and consumption patterns, scenario projects a small deficit of crop production and partly as responses to changing investment of all crops by 2050. Although the BAU scenario is scenarios and economic growth. This report optimistic in meeting the future food demand, its attempts to capture the trends of key drivers of water use patterns will lead to a severe regional water demand in the recent past, and assess their water crisis by 2050. Many river basins will reach implications on future water demand. The business- closure, will be physically water-scarce and will as-usual (BAU) scenario in this report assumes the have regions with severely overexploited continuation of current trends and projects India’s groundwater resources. water future to 2025–2050. Assessment of possible deviations from the The BAU scenario projects the total water BAU scenario shows rather optimistic and demand to increase by 22% and 32% by 2025 and pessimistic scenarios. While higher growth of both 2050, respectively, from the present level of 680 urban population and feed demand for the livestock billion cubic meters (Bm3). The industrial and population will increase water demand, the domestic sectors will account for 85% of the productivity growth, higher groundwater irrigated additional demand by 2050. Groundwater dominates area and efficiency growth will reduce irrigation irrigation growth of the BAU scenario and will share demand significantly. In order to reach the benefits 60% of the area and 51% of the total irrigation by of the latter scenarios, India requires investments in 2050. This, along with higher irrigation efficiencies, interventions in recharging groundwater, spreading will decrease the water demand for irrigation over water saving technologies and increasing crop the period 2025–2050. productivity growth. v vi India’s Water Future to 2025–2050: Business-as-Usual Scenario and Deviations Upali A. Amarasinghe, Tushaar Shah, Hugh Turral and B. K. Anand Introduction For many reasons, India has occupied a center Food and water demand projections of India— stage in global food and water supply and demand which are experiencing rapid economic and projections. First, with a population of over a demographic changes—need regular updating. For billion, India is the second most populous country the base year, many recent projection studies used in the world. By the middle of this century it needs information relevant to the period from the late to feed an extra population of 500 million. Second, 1980s through the early 1990s. One such study, India has had a huge economy and a remarkable considered a blueprint for water resources economic growth in the last decade. With the management and planning of India, is the 1998 booming economy, people’s expenditure patterns water demand projections of the National are changing; so do their lifestyles. Rapid Commission for Integrated Water Resources urbanization is also adding fuel to these changes. Development (NCIWRD) (GOI 1999). For the base As a result, food consumption patterns are year, the NCIWRD projections used data relevant changing—changes a traditional country like India to 1993–1994, and the trends relevant to the 1980s would not have imagined a few decades ago. The for future projections. However, many unforeseen changing food consumption patterns are so changes, which affected the demand projections, significant that they have a considerable impact on took place in the last decade. In particular, the the needs of future food and water demand. Third, changes due to economic liberalization in India in and perhaps the most critical, is that India has the early 1990s are only visible now. Due to these significant spatial mismatches of the population changes, some food and water demand drivers, and water resources (Amarasinghe et al. 2005). which are endogenous to India, such as food Less water is available in places where more consumption and land use patterns, and people live and much of the food is grown. Some exogenous to India, such as the world food trade, river basins are already experiencing physical are fast changing. Therefore, in this context, many water scarcities. A few others face problems of of the past food and
Recommended publications
  • Fish Diversity of the Vatrak Stream, Sabarmati River System, Rajasthan
    Rec. zool. Surv. India: Vol. 117(3)/ 214-220, 2017 ISSN (Online) : (Applied for) DOI: 10.26515/rzsi/v117/i3/2017/120965 ISSN (Print) : 0375-1511 Fish diversity of the Vatrak stream, Sabarmati River system, Rajasthan Harinder Singh Banyal* and Sanjeev Kumar Desert Regional Centre, Zoological Survey of India, Jodhpur – 342005, Rajasthan, India; [email protected] Abstract Five species of fishes belonging to order cypriniformes from Vatrak stream of Rajasthan has been described. Taxonomic detailsKeywords along: with ecology of the fish fauna and stream morphology are also discussed. Diversity, Fish, Rajasthan, stream morphology, Vatrak Introduction Sei joins from right. Sabarmati River originates from Aravalli hills near village Tepur in Udaipur district of Rajasthan, the biggest state in India is well known for its Rajasthan and flows for 371 km before finally merging diverse topography. The state of Rajasthan can be divided with the Arabian Sea. Thus the Basin of Sabarmati River into the following geographical regions viz.: western and encompasses states of Rajasthan and Gujarat covering north western region, well known for the Thar Desert; the an area of 21,674 Sq.km between 70°58’ to 73°51’ East eastern region famous for the Aravalli hills, whereas, the longitudes and 22°15’ to 24°47’ North latitudes. The southern part of the state with its stony landscape offers Vatrak stream basin is circumscribed by Aravalli hills typical sites for water resource development where most on the north and north-east, Rann of Kachchh on the of the man-made reservoirs are present. Mahi River basin west and Gulf of Khambhat on the south.
    [Show full text]
  • Evaluation of Water Quality Status of Mahi River in Gujarat Region
    International Journal of Advances in Science Engineering and Technology, ISSN(p): 2321 –8991, ISSN(e): 2321 –9009 Vol-6, Iss-4, Spl. Issue-1 Nov.-2018, http://iraj.in EVALUATION OF WATER QUALITY STATUS OF MAHI RIVER IN GUJARAT REGION HIMANI PANDEY 1 Department of Earth and Environmental Sciences, K.S.K.V. Kachchh University, Bhuj-Kachchh, Gujarat-370001. 2Asst Prof., Institute of Technology and Management, Universe Vadodara, Gujarat. E-mail: [email protected] Abstract - The aim of the present study was to evaluate the water quality of Mahi River in Gujarat Region. Mahi river covers three states Madhya Pradesh, Gujarat and Rajasthan. Mahi river is one of the longest river which passes from Gujarat. It originates from Madhya Pradesh and confluences at Gulf of Khambhat. In the present study seasonal variability of various physical, chemical and biological parameters was studied during the period of May 2016 to April 2017. This study was conceived in order to bring to light the present status of Mahi River in terms of its water quality and the impact of heavy metal pollutants on the chosen biota at the receiving coastal water body. Keywords - Water Pollution, Water Quality, Effluent. I. INTRODUCTION manufacture, pesticide, pigment manufacture, printing and photographic industries, etc., (Kadirvelu Gujarat is located on the north-western shores of et al., 2001a). Mahi river which is a perennial river India, which lies between 20°01’ and 24° 07’ north flows around 12 km from Vadodara city. There are latitudes and 10’ and 74° 28’ east longitudes. Gujarat many industries situated on the southern bank of the State has common borders with Rajasthan, Madhya river.
    [Show full text]
  • LIST of INDIAN CITIES on RIVERS (India)
    List of important cities on river (India) The following is a list of the cities in India through which major rivers flow. S.No. City River State 1 Gangakhed Godavari Maharashtra 2 Agra Yamuna Uttar Pradesh 3 Ahmedabad Sabarmati Gujarat 4 At the confluence of Ganga, Yamuna and Allahabad Uttar Pradesh Saraswati 5 Ayodhya Sarayu Uttar Pradesh 6 Badrinath Alaknanda Uttarakhand 7 Banki Mahanadi Odisha 8 Cuttack Mahanadi Odisha 9 Baranagar Ganges West Bengal 10 Brahmapur Rushikulya Odisha 11 Chhatrapur Rushikulya Odisha 12 Bhagalpur Ganges Bihar 13 Kolkata Hooghly West Bengal 14 Cuttack Mahanadi Odisha 15 New Delhi Yamuna Delhi 16 Dibrugarh Brahmaputra Assam 17 Deesa Banas Gujarat 18 Ferozpur Sutlej Punjab 19 Guwahati Brahmaputra Assam 20 Haridwar Ganges Uttarakhand 21 Hyderabad Musi Telangana 22 Jabalpur Narmada Madhya Pradesh 23 Kanpur Ganges Uttar Pradesh 24 Kota Chambal Rajasthan 25 Jammu Tawi Jammu & Kashmir 26 Jaunpur Gomti Uttar Pradesh 27 Patna Ganges Bihar 28 Rajahmundry Godavari Andhra Pradesh 29 Srinagar Jhelum Jammu & Kashmir 30 Surat Tapi Gujarat 31 Varanasi Ganges Uttar Pradesh 32 Vijayawada Krishna Andhra Pradesh 33 Vadodara Vishwamitri Gujarat 1 Source – Wikipedia S.No. City River State 34 Mathura Yamuna Uttar Pradesh 35 Modasa Mazum Gujarat 36 Mirzapur Ganga Uttar Pradesh 37 Morbi Machchu Gujarat 38 Auraiya Yamuna Uttar Pradesh 39 Etawah Yamuna Uttar Pradesh 40 Bangalore Vrishabhavathi Karnataka 41 Farrukhabad Ganges Uttar Pradesh 42 Rangpo Teesta Sikkim 43 Rajkot Aji Gujarat 44 Gaya Falgu (Neeranjana) Bihar 45 Fatehgarh Ganges
    [Show full text]
  • TEST 6 MPPSC 2020 MAINS TEST SERIES TEST 6 MODEL HINTS GS PAPER 1 (Part B) GEOGRAPHY Unit I, Unit II, Unit III, Unit IV and Unit V ------3 MARKERS 1
    MPPSC 2020 – MAINS TEST SERIES 2020 - TEST 6 MPPSC 2020 MAINS TEST SERIES TEST 6 MODEL HINTS GS PAPER 1 (Part B) GEOGRAPHY Unit I, Unit II, Unit III, Unit IV and Unit V -------------------------------------------------------------------------------------------------------------------------------------------------------------- 3 MARKERS 1. This question consists of very short answer type question. Each question is to be answered in 1 line (10 Words). There is no internal choice. Each question carries 3 marks (a) Duars Model Hints • The longitudinal flat floored structural valleys region between the Lesser Himalayas and the Outer Himalayas are called as ‗duars’ (door) in the eastern Himalayan region in India. It's called as ‘duns’ in the western himalayan region. • The Bhabar of Punjab are known as duars in Assam • Duars is the gateway to the hill stations of North Bengal, Assam and Bhutan. • Duar region is famous for its tea gardens, forests. • It is ideal for nature enthusiasts and adventure seekers. (b) Cropping Intensity Model Hints Cropping intensity refers to raising of a number of crops from the same field during one agricultural year. It can be measured through a formula : Cropping intensity = Total cropped area x 100 Net sown area MPPSC 2020 - MAINS TEST SERIES 2020 (Enroll@8999) Call: 9953733830 WhatsApp: 7982862964 Mail: [email protected] www.mppscadda.com MPPSC 2020 – MAINS TEST SERIES 2020 - TEST 6 (c) High Tide and Low Tide. Model Hints Tides are the daily changes in the level of the ocean water at any given place. The main factors that causes tides are the gravitational pull of the Moon and the Sun High tide is created by the gravitational pull of the moon which pulls water toward it.
    [Show full text]
  • 2012 Speaker Bios
    BORLAUG SUMMER INSTITUTE ON GLOBAL FOOD SECURITY SPEAKER BIOS Philip Abbott Dr. Philip Abbott is a professor in the Department of Agricultural Economics at Purdue University. He teaches courses on mathematical programming, international trade, trade policy and agricultural development, macroeconomics and mathematical economics. His current research focuses on international trade and international agricultural development, and four of his students have won national awards for the quality of their dissertations. Phil has consulted for several domestic and foreign government agencies, including the United Nations Food and Agricultural Organization. He has been on the editorial boards of the American Journal of Agricultural Economics and the Journal of Development Economics. In addition, Phil has published numerous articles and studies. Recent publications include studies on Tariff Rate Quotas, Globalization, Wheat-Importing State Agricultural Commodity Production and Trade, Implications of Game Theory for International Agricultural Trade, American Journal of Agricultural Economics. He has been on the editorial boards of the American Journal of Agricultural Economics and the Journal of Development Economics. Notably he also serves on numerous committees including The International Agricultural Trade Research Consortium and The USDA–USTR Agricultural Technical Advisory Committee for Trade in Grains, Feeds and Oilseeds. Jay Akridge Dr. Jay T Akridge was appointed Dean of the Purdue University College of Agriculture in 2009. As dean he is responsible for administering academic programs in the College of Agriculture, the Indiana Agricultural Experiment Station, the Purdue Cooperative Extension Service and a number of state regulatory services. Prior to being named dean, Dr. Akridge was the James and Lois Ackerman Professor of Agricultural Economics at Purdue and served as director of the Center for Food and Agricultural Business and the MS-MBA in food and agribusiness management program.
    [Show full text]
  • Norman Borlaug
    Norman Borlaug Melinda Smale, Michigan State University I’d like to offer some illustrative examples of how scientific partnerships and exchange of plant genetic resources in international agricultural research have generated benefits for US farmers and consumers. 1. It is widely accepted that the greatest transformation in world agriculture of the last century was the Green Revolution, which averted famine particularly in the wheat and rice-growing areas of numerous countries in Asia by boosting levels of farm productivity several times over, lowering prices for consumers, raising income and demand for goods and services. Most of us here are familiar with the history of this transformation. • You will remember that the key technological impetus was short- statured varieties that were fertilizer responsive and didn’t fall over in the field when more of the plant’s energy was poured into grain rather than the stalk and leaves. • Less well known is that the origin of the genes that conferred short- stature in wheat was a landrace from Korea--transferred to Japan, named Daruma, and bred into Norin 10. Norin 10 was named for a Japanese research station, tenth selection from a cross. Later, Norin 10 was brought as a seed sample by an agronomist advisor who served in the MacArthur campaign after WWII. At Washington State University it was crossed to produce important US wheat varieties. The most extensive use of Norin 10 genes outside Japan and the US was by Norman Borlaug, who won the 1970 Nobel Peace Prize. He was the founder of the World Food Prize (won, for example, by Gebisa Ejeta).
    [Show full text]
  • The Payoff to Investing in Cgiar Research
    THE PAYOFF TO INVESTING IN CGIAR RESEARCH October 2020 (revised) Julian M. Alston, Philip G. Pardey, and Xudong Rao >>> Table of Contents KEY FINDINGS I What motivated us I What we did I What we found III Implications of our findings V EXECUTIVE SUMMARY VIII THE PAYOFF TO INVESTING IN CGIAR RESEARCH 1 1. Introduction 2 1.1 Report Roadmap 6 CONTEXT FOR THE ASSESSMENT 7 2. Evolving Structure of Global Agriculture, Agricultural R&D, and the CGIAR 8 2.1 Global Perspectives on Food, Agriculture, and R&D 8 2.2 The Global Incidence of Hunger and Poverty 11 2.3 The (Economic) Geography of Agriculture and Food Production 13 2.4 The (Economic) Geography of Agricultural and Food R&D Spending 15 Rising private-sector presence 17 Agricultural R&D versus total R&D 17 CGIAR spending 18 3. CGIAR Research Institutions and Investments 20 3.1 A Potted (Economic and Institutional) History of the CGIAR 20 Funding history 20 CGIAR spending breakdowns 23 3.2 Sources of Support for CGIAR Research 26 3.3 Previous Evaluation Reports 30 THE RETURNS TO CGIAR RESEARCH 34 4. Concepts, Methods, Measures and Data for the Analysis 35 4.1 Concepts and Challenges 35 4.2 Overview of the Evidence 36 4.3 Standardizing the ROR Metric 37 4.4 Selecting Data for the Analysis: Filtering 39 <<< 5. Evidence on the Returns to Investments in CGIAR Research 43 5.1 Distribution of Estimated BCRs 44 5.2 Regression Analysis 47 5.3 The BCR for CGIAR research 50 6. The Benefits From Investments in CGIAR Research 53 6.1 Scaling ROR Evidence: From BCRs to Benefits 53 6.2 Directly Estimated Benefits 58 6.3 Ground-Truthing Benefits 64 The (approximate) value of productivity growth 64 Simple approximate benefit-cost ratios 67 6.4 Reservations About the ROR Evidence 69 7.
    [Show full text]
  • Perennial and Non-Perennial River- River Originating from Mountains, They Get Water Throughout the Year, That River Consider As Perennial River
    Perennial and Non-Perennial river- River originating from mountains, they get water throughout the year, that river consider as Perennial river. on the other hand river originating from plateau region called Non-Perennial river. these river do not have enough water for the whole year. Peninsular river- They have a large seasonal fluctuation in volume as they are solely fed from rainfall. These river flow in valley with steep gradients. the river which end in the Bay of Bengal are called 'East flowing' river, If the river empties into the Arabian sea, it is called ' West flowing' river. Inland drainage river- The river which does not empty itself into any sea, and end with any lake or any other water body is known as Inland Drainage river. Classification Indus River Originated from Bokharchu Glacier , near Mansarover. Rivers in India Total length of about 2897 km, it fall into the Arabian sea. Enter in India through Ladakh, flow only in J&K. Ganga River It flow between the Ladakh range and the Zaskar range at Leh. Brahmaputra River Originates as the Bhagirathi from the Gangotri glacier. Originates from Mansaravar Lake. Alaknanda unites with Bhagirathi at Devprayag, Uttarakhand, henceafter know as Ganga. Total length of about 3848 km. It fall into Bay of Bengal. At Bangladesh, Ganga merge with Brahmaputra, mixture known as Padma river. Enter India in Arunachal Pradesh. most of its course lies outside India. Total length of about 2510 km, It fall into the Bay of Bengal. It flow parallel to the Himalayas in the eastward direction. Originate from the Yamunotri glacier, at the Bandarpoonch peak in Uttarakhand.
    [Show full text]
  • Environmental and Social Management Framework Summary
    Language: English Original: English PROJECT: TECHNOLOGIES FOR AFRICAN AGRICULTURAL TRANSFORMATION COUNTRY: MULTINATIONAL ENVIRONMENTAL AND SOCIAL MANAGEMENT FRAMEWORK SUMMARY Date: June 2017 Team Leader: J. N. CHIANU, Agricultural Economist, OSAN.0 Team Members: E. ATTIOGBEVI-SOMADO, Agronomist, OSAN.2 D. IHEDIOHA, Agro-Industry Specialist, OSAN.1 B. ABDULAI, Procurement Specialist, ORNG/ORPF H. DJOUSSOU-LORNG, Agricultural Economist, OSAN.2 F. ONDOBO, Agribusiness Specialist, OSAN.2 R. BAKO, Disbursement Assistant, ORNG O. IKUFORIJI, Consultant, Environment & Climate Change, OSAN.3 Appraisal Team Sector Manager: P.AGBOMA, OSAN.2 Sector Director: C. OJUKWU, OSAN Regional Directors: J. KOLSTER, ORNA A. BERNOUSSI, ORWA M. KANGA, ORCE E. FAAL, ORSA ENVIRONMENTAL AND SOCIAL MANAGEMENT FRAMEWORK (ESMF) SUMMARY Project Name: TECHNOLOGIES FOR AFRICAN AGRICULTURE TRANSFORMATION Project Number: P- Z1-A00-016 Country: MULTINATIONAL Department: AHAI Division: AHAI.2 Environmental Category: 2 1. Introduction TAAT is a flagship program of the African Development Bank’s Feed Africa Strategy designed to mobilize proven agricultural technologies that will increase production and value addition of key agriculture commodities. The program aims to overcome two key challenges attributed to the adoption of agriculture technologies i.e., limited consideration of newly emerging agriculture technologies (required to boost agricultural production) by regional member countries (RMCs) causing them to fall short of their impact targets and poor commercialization
    [Show full text]
  • CGIAR Consortium of International Agricultural Research Centers
    Plant Variety Protection and Technology Transfer: The benefits of public-private partnership Perspectives of the CGIAR Consortium of International Agricultural Research Centers Lloyd Le Page, CEO Consortium Office, Montpellier, France. CGIAR Consortium: Who and where we are Consortium of 15 International Agricultural Research Centers that operate in over 200 locations world wide Formed in 2010 as part of reform of the CGIAR, this year 40 years old Consortium Office established in Montpellier, France in March 2011 IFPRI World Agro- CIMMYT Forestry CIAT Bioversity CIP ICARDA Africa Rice ICRISAT IITA IWMI ILRI World Fish CIFOR IRRI Our Vision Task : ❶To reduce poverty and hunger, ❷improve human health and nutrition, and ❸enhance ecosystem resilience How: • high‐quality international agricultural research • partnership and leadership Photo: CGIAR CGIAR Research Programs Main organizational mechanism for planning and conducting research Built on three core principles • Impact on system‐level outcomes • reduced rural poverty • improved food security • improved nutrition and health • sustainably managed natural resources • Integration across CGIAR core competencies • Appropriate partnerships at all stages of R&D CGIAR Research Programs CGIAR Research Programs Intellectual Assets and the Consortium The Consortium and its member Centers regard results and outputs of our research and development activities as goods for the public at large (IPGs) – committed to their widespread diffusion and use – seek to achieve maximum possible access, scale and
    [Show full text]
  • Technology and the Africa Rice Center
    Daniels Fund Ethics Initiative University of New Mexico http://danielsethics.mgt.unm.edu Debate Technology and the Africa Rice Center ISSUE: Should genetic modification be used to further economic development? In Africa, the rice industry is represented by the Africa Rice Center, formerly known as West Africa Rice Development Association (WARDA). The mission of the center is to contribute to poverty alleviation and food security in Africa, through research, development, and partnership activities aimed at increasing the productivity and profitability of the rice sector in ways that ensure the sustainability of the farming environment. The association started in 1970 and today boasts twenty-two African nations as members and partners with many international organizations, including the United Nations, European Commission, and the World Health Organizations. In carrying out its mission, the center recognizes three key barriers, including (1) low productivity and sustainability of rice, (2) poor quality of the marketed product, and (3) unfavorable market and policy environment. To overcome these issues, the center established a strategic plan, including the use of research and development protocols to bridge genetic diversity and produce new variations of rice and disease-resistant crops. The center's current technologies allowed for the introduction of NERICA (New Rice for Africa) rice varieties. NERICA was created by crossing O. glaberrima and O. sativa, two species of rice that demonstrate different strengths and weaknesses when grown in Africa. Rice farmers had long hoped to combine the best traits of the two species, but efforts had been fruitless. In the early 1990s, WARDA breeders turned to biotechnology in an attempt to overcome the infertility problem.
    [Show full text]
  • Performance and Development Effectiveness of the Sardar Sarovar Project
    PERFORMANCE AND DEVELOPMENT EFFECTIVENESS OF THE SARDAR SAROVAR PROJECT TATA INSTITUTE OF SOCIAL SCIENCES (A Deemed University) V.N. Purav Marg, Deonar Mumbai 400088 INDIA www.tiss.edu ____________________________________________________________________________ Cover Photograph, Design and Layout : Mukund Sawant, TISS, Mumbai Text Layout, Design and Typesetting : Publications Unit, TISS, Mumbai Printing : Specific Assignments, Parel, Mumbai – 40 011 ii CONTENTS Preface iv Executive Summary vi Chapter 1 Sardar Sarovar Project: Examining Social, Environmental 1 and Financial Costs Chapter 2 Sardar Sarovar Project: Benefits Realised? 58 Chapter 3 Concluding Observations 90 Appendices 92 Appendix 1 Chronology of Events 92 Appendix 2 Extract from Directions Regarding Submergence, Land 99 Acquisition and Rehabilitation of the Displaced Persons Appendix 3 Case Studies 100 Appendix 4 Graphs 102 iii PREFACE The Tata institute of Social Sciences (TISS), Mumbai, was the official agency for Monitoring and Evaluation of Resettlement and Rehabilitation of people displaced in Maharashtra by the Sardar Sarovar Project (SSP) from 1987 to 1994. During this period, the TISS developed baseline data on social, demographic, economic, cultural and environmental aspects of individuals, families and communities in 33 villages in Akkalkuwa and Akrani tehsils of Dhule (now Nandurbar) district, and tracked changes in the habitat and life conditions of people shifted from Manibeli, Dhankhedi, and Chimalkhedi villages to Parveta (one of the earliest resettlement sites in Gujarat). While TISS moved out of its monitoring and evaluation role in 1994, it continued to track the progress made on various aspects of the SSP. Dam height has been steadily increasing and reached 121.92 m in October 2006; the final and pending phase of installing radial gates will take the dam height to 138.68 m.
    [Show full text]