1.Climate Resilient Green Economy: Prospects
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3 Electrical Cables
Report by the Federal Ministry for the Environment, Nature Conservation, Building and Nuclear Safety (BMUB) on Topical Peer Review Ageing Management of Nuclear Power Plants and Research Reactors Publisher: Federal Ministry for the Environment, Nature Conservation, Building and Nuclear Safety (BMUB) Division RS I 5 · PO box 12 06 29 · 53048 Bonn · Germany E-Mail: [email protected] Website: http://www.bmub.bund.de Editors: Division RS I 5 (General and Fundamental Aspects of Reactor Safety, Nuclear Safety Codes and Standards, Multilateral Regulatory Cooperation) Date: 28th December 2017 Contents Contents List of Figures ............................................................................................................................... V List of Tables ................................................................................................................................ VI Abbreviations .............................................................................................................................. VII Executive Summary ...................................................................................................................... 1 Preamble ..................................................................................................................................... 2 1 General information ................................................................................................... 3 1.1 Nuclear installations identification ................................................................................ -
District Statistical Hand Book Chennai District 2016-2017
Government of Tamil Nadu Department of Economics and Statistics DISTRICT STATISTICAL HAND BOOK CHENNAI DISTRICT 2016-2017 Chennai Airport Chennai Ennoor Horbour INDEX PAGE NO “A VIEW ON ORGIN OF CHENNAI DISTRICT 1 - 31 STATISTICAL HANDBOOK IN TABULAR FORM 32- 114 STATISTICAL TABLES CONTENTS 1. AREA AND POPULATION 1.1 Area, Population, Literate, SCs and STs- Sex wise by Blocks and Municipalities 32 1.2 Population by Broad Industrial categories of Workers. 33 1.3 Population by Religion 34 1.4 Population by Age Groups 34 1.5 Population of the District-Decennial Growth 35 1.6 Salient features of 1991 Census – Block and Municipality wise. 35 2. CLIMATE AND RAINFALL 2.1 Monthly Rainfall Data . 36 2.2 Seasonwise Rainfall 37 2.3 Time Series Date of Rainfall by seasons 38 2.4 Monthly Rainfall from April 2015 to March 2016 39 3. AGRICULTURE - Not Applicable for Chennai District 3.1 Soil Classification (with illustration by map) 3.2 Land Utilisation 3.3 Area and Production of Crops 3.4 Agricultural Machinery and Implements 3.5 Number and Area of Operational Holdings 3.6 Consumption of Chemical Fertilisers and Pesticides 3.7 Regulated Markets 3.8 Crop Insurance Scheme 3.9 Sericulture i 4. IRRIGATION - Not Applicable for Chennai District 4.1 Sources of Water Supply with Command Area – Blockwise. 4.2 Actual Area Irrigated (Net and Gross) by sources. 4.3 Area Irrigated by Crops. 4.4 Details of Dams, Tanks, Wells and Borewells. 5. ANIMAL HUSBANDRY 5.1 Livestock Population 40 5.2 Veterinary Institutions and Animals treated – Blockwise. -
Chennai District Origin of Chennai
DISTRICT PROFILE - 2017 CHENNAI DISTRICT ORIGIN OF CHENNAI Chennai, originally known as Madras Patnam, was located in the province of Tondaimandalam, an area lying between Pennar river of Nellore and the Pennar river of Cuddalore. The capital of the province was Kancheepuram.Tondaimandalam was ruled in the 2nd century A.D. by Tondaiman Ilam Tiraiyan, who was a representative of the Chola family at Kanchipuram. It is believed that Ilam Tiraiyan must have subdued Kurumbas, the original inhabitants of the region and established his rule over Tondaimandalam Chennai also known as Madras is the capital city of the Indian state of Tamil Nadu. Located on the Coromandel Coast off the Bay of Bengal, it is a major commercial, cultural, economic and educational center in South India. It is also known as the "Cultural Capital of South India" The area around Chennai had been part of successive South Indian kingdoms through centuries. The recorded history of the city began in the colonial times, specifically with the arrival of British East India Company and the establishment of Fort St. George in 1644. On Chennai's way to become a major naval port and presidency city by late eighteenth century. Following the independence of India, Chennai became the capital of Tamil Nadu and an important centre of regional politics that tended to bank on the Dravidian identity of the populace. According to the provisional results of 2011 census, the city had 4.68 million residents making it the sixth most populous city in India; the urban agglomeration, which comprises the city and its suburbs, was home to approximately 8.9 million, making it the fourth most populous metropolitan area in the country and 31st largest urban area in the world. -
Dispossession by Neglect: Agricultural Land Sales in the Periphery of Chennai
MIDS WORK I NG PA P ER NO. 223 Dispossession by Neglect: Agricultural Land Sales in the Periphery of Chennai M. Vijayabaskar and Ajit Menon Madras Institute of Development Studies July 2016 mids Madras Institute of Development Studies MIDS Working Paper No. 223, July 2016 Dispossession by Neglect: Agricultural Land Sales in the Periphery of Chennai by M. Vijayabaskar and Ajit Menon Rs. 25.00 Madras Institute of Development Studies 79, Second Main Road, Gandhi Nagar Adyar, Chennai 600 020 Tel.: 2441 1574/2589/2295/9771 Fax : 91-44-24910872 [email protected] http://www.mids.ac.in Dispossession by Neglect: Agricultural Land Sales in the Periphery of Chennai* M. Vijayabaskar and Ajit Menon** Abstract The emergence of active land markets in the periphery of Chennai has resulted in large tracts of agricultural land being bought by non- agricultural actors who seek returns primarily on speculation. We argue in this paper that the financialisation of land and consequent spurt in the sale of agricultural land are central to what scholars have termed ‘land grab’. Recent literature on land grabs has focused primarily on processes of accumulation by dispossession and the coercive role of the state. Our contention is that land grabs more commonly occur due to the state under-investing in agriculture, resulting in ‘dispossession by neglect’ of especially marginal and small farmers. Dispossession by neglect better captures the fluid boundary between the coercive and the voluntary in contemporary land grabs. Key Words: Dispossession, Land market, Land grab, Financialisation of land. 1. Introduction Raghavan (name changed) has been practicing as a civil lawyer for several years in metropolitan Chennai, India. -
Study on Para-Transit in Chennai
Paratransit Study 2011 November, 2011 Conducted by Civitas Urban Solutions for Chennai City Connect Foundation (CCCF) Funded by Shakti Sustainable Energy Foundation (SSEF) www.shaktifoundation.in www.civitas.in www.chennaicityconnect.com CCCF/Civitas | 2 Paratransit Study 2011 November ,2011 STUDY ON PARATRANSITSE CTOR IN CHENNAI Anjali Prabhu D.B Madhu.S Lakshmi Ramamurthy D.Dhanuraj CCCF/Civitas | 3 Paratransit Study 2011 Acknowledgements The study was conducted by Civitas Urban Solutions Team headed by Anjali Prabhu D.B for Chennai City Connect Foundation. The contributions of Madhu.S, Lakshmi Ramamurthy, Dhanuraj. D and Sampath Simon have been instrumental in the successful completion of the project. Special thanks to the editor Archana S. Gayen and to Jiyad K.M for designing the layout. The team acknowledges the contributions of Chennai City Connect team of Raj Cherubal, Balchand Parayath and Daniel Robinson. We extend sincere thanks to all share auto drivers, Transport Authority and Union officials, dealers and passengers who contributed immensely to the study. We extend our sincere thanks for the assistance provided by the Institute for Transportation and Development Policy (ITDP) Team consisting of Shreya Gadepally, Christopher Kost, Carlos Felipe Pardo and Vidhya Mohankumar. We also express our sincere thanks to Meleckidzedeck Khayesi of World Health Organization, Elizabeth Marcello of Earth Institute at Columbia University. The team also express sincere thanks to the valuable contributions made by Union leaders Anbazhagan of CITU and Ezhumalai of AITUC. We thank Centre for Public Policy Research (www.cppr.in) for their research support. CCCF/Civitas | 4 Paratransit Study 2011 About the Authors Shakti Sustainable Energy Foundation (SSEF) The Shakti Sustainable Energy Foundation (SSEF) is an NGO whose mission is to create a secure, sustainable, and equitable future for India’s citizens by supporting policies and significantly, policy implementation, that promote energy efficiency, sustainable transportation, and renewable energy. -
A Comparative Analysis of Nuclear Facility Siting Using Coalition Opportunity Structures and the Advocacy Coalition Framework
UNIVERSITY OF OKLAHOMA GRADUATE COLLEGE ORDER IN A CHAOTIC SUBSYSTEM: A COMPARATIVE ANALYSIS OF NUCLEAR FACILITY SITING USING COALITION OPPORTUNITY STRUCTURES AND THE ADVOCACY COALITION FRAMEWORK A DISSERTATION SUBMITTED TO THE GRADUATE FACULTY in partial fulfillment of the requirements for the Degree of DOCTOR OF PHILOSOPHY By KUHIKA GUPTA Norman, Oklahoma 2013 ORDER IN A CHAOTIC SUBSYSTEM: A COMPARATIVE ANALYSIS OF NUCLEAR FACILITY SITING USING COALITION OPPORTUNITY STRUCTURES AND THE ADVOCACY COALITION FRAMEWORK A DISSERTATION APPROVED FOR THE DEPARTMENT OF POLITICAL SCIENCE BY ______________________________ Dr. Hank C. Jenkins-Smith, Chair ______________________________ Dr. Carol L. Silva, Co-Chair ______________________________ Dr. Christopher M. Weible ______________________________ Dr. Deven E. Carlson ______________________________ Dr. Jill A. Irvine © Copyright by KUHIKA GUPTA 2013 All Rights Reserved. Dedication For my incredible parents, Anil and Alpana Gupta, for making all of this possible, and my husband, Joseph T. Ripberger, for being a constant inspiration. Acknowledgements This dissertation would not be possible were it not for the invaluable support I have received throughout my journey as an undergraduate at Delhi University in India, a graduate student at the University of Warwick in England, and my pursuit of a doctorate at the University of Oklahoma in the United States. During my time at Delhi University, Ramu Manivannan was an amazing mentor who taught me the value of making a difference in both academia and the real world. My greatest debt is to Hank Jenkins-Smith and Carol Silva at the University of Oklahoma, whose encouragement, guidance, and intellectual advice has made this journey possible. I am deeply grateful for their unending support; this dissertation would not exist without them. -
Industrial Real Estate Infrastructure
Manufacturing India’s Industrial Real Estate Infrastructure A CII-CBRE INITIATIVE 2 | A CII AND CBRE INITIATIVE Contents Summary 1 SECTION 1: DRIVERS OF FUTURE ECONOMIC GROWTH 2 SECTION 2: ROLE OF INDUSTRIAL REAL ESTATE INFRASTRUCTURE 4 SECTION 3: INDUSTRIAL REAL ESTATE INFRASTRUCTURE IN INDIA 7 SECTION 4: THE DELHI – MUMBAI INDUSTRIAL CORRIDOR (DMIC) 9 SECTION 5: RAJASTHAN IN THE DELHI MUMBAI INDUSTRIAL CORRIDOR 11 SECTION 6: DEVELOPMENT STRATEGIES 13 CBRE CAPABILITY 14 INDUSTRIAL ADVISORY 14 About CII 15 About CBRE 16 ASSESSING THE ECONOMIC IMPACT OF THE REAL ESTATE SECTOR SUMMARY Over the past twenty years, India’s economic expansion has largely been led by the services sector, which has provided significant opportunities for socio-economic transformation in the country. However, post the downturn in 2008-09, India has been trying to realign its economic structure and identify a new catalyst for economic rejuvenation. Manufacturing has been identified as the focus sector by India’s policymakers, which can drive the next phase of growth in the economy and also provide a significant impetus to the creation of infrastructure in the country. The manufacturing sector has played a significant role in driving economic liberalization and expansion across most of the developed world, as well as in leading emerging economies. From a generator of vast employment opportunities to a catalyst of strategic-economic influence, manufacturing is often identified as the fulcrum of global economic output. Leading Asian nations such as China, Japan and Korea have witnessed their manufacturing strengths grow by multiple folds during critical periods of their economic expansion. This has not only been driven by the presence of a strong government vision, policy support and presence of cost effective labor and markets, but by sustained development of industrial real estate infrastructure. -
State Industrial Profile Tamil Nadu
STATE INDUSTRIAL PROFILE 2014-15 TAMIL NADU by MSME - DEVELOPMENT INSTITUTE MINISTRY OF MICRO, SMALL AND MEDIUM ENTERPRISES (MSME) GOVERNMENT OF INDIA 65/1, GST Road, Guindy, Chennai-600032 Tel: 044-22501011–12-13 Fax: 044-22501014 Website: www.msmedi-chennai.gov.in email: [email protected] FOREWORD MSME-Development Institute (MSME-DI), Chennai has brought out a compendium on ‘State Industrial Profile of Tamil Nadu-204-15’ a very useful reference material for the aspiring/existing entrepreneurs, Industrial Associations, research scholars on MSMEs etc. The compendium inter alia gives various data/details on MSMEs in the State of Tamil Nadu including fact sheet of Tamil Nadu, General Profile of the State, Economic Profile, performance of major industries sectors, district - wise investment opportunities, identified clusters, various incentives/schemes of Govt. Of India and Govt. Tamil Nadu for MSMEs , performance of major Banks on credit flow to MSE sector etc. The data/details covered in this compendium has been prepared based on the information available/furnished by the Office of Industries Commissioner and Director of Industries and Commerce Govt. Of Tamil Nadu and Govt. Web sites related to Industry. I wish to place on record my appreciation to the team work of Economic Investigation Division of this Institute for bringing out this useful guide. The performance of MSME-DI, Chennai has been improving every year and I wish to thank all our colleagues including Branch MSME-DIs, Field Offices of MSME, Office of Industries Commissioner and Director of Industries and Commerce, Govt. Of Tamil Nadu, District Industries Centres, Industries Associations, Financial Institutions, NGOs, aspiring/existing entrepreneurs and other stake holders for their continued support extend to this Institute for achieving our mission and vision of this Institute. -
Nuclear Glossary 2007-06
Forschungszentrum Karlsruhe Technik und Umwelt GLOSSARY OF NUCLEAR TERMS Winfried Koelzer © Forschungszentrum Karlsruhe GmbH, Karlsruhe, April 2001 Postfach 3640 · 76021 Karlsruhe, Germany Original title: Lexikon zur Kernenergie, ISBN 3-923704-32-1 Translation by Informationskreis KernEnergie The reproduction of trade names, identifications, etc. in this glossary does not justify the assumption that such names may be considered free in the sense- of the laws regulating the protection of trade marks and brands and that therefore they may be used by everyone. No guarantee is given for the correctness of numerical data. Pictures by: Argonne National Lab., Argonne Aulis-Verlag Deubner & Co., Cologne Forschungszentrum Karlsruhe, Karlsruhe Informationskreis Kernenergie, Bonn A Absorbed dose The absorbed dose D is the quotient of the average energy transferred to the matter in a volume element by ionizing radiation and the mass of the matter in this volume element: _ d ε D = . dm The unit of the absorbed dose is joule divided by kilogram (J·kg-1) and its special unit name is gray (Gy). The former unit name was rad (symbol: rd or rad).1 Gy = 100 rd; 1 rd = 1/100 Gy. Absorbed dose rate Quotient of absorbed dose per unit of time. Unit: Gy/h. Absorber Any material "stopping" ionizing radiation. Alpha radiation can already be totally absorbed by a sheet of paper; beta radiation is absorbed by a few centimetres of plastic material or 1 cm of aluminium. Materials with a high →atomic number and high density are used for gamma radiation absorbers (lead, steel, concrete, partially with special additions). Neutron absorbers such as boron, hafnium and cadmium are used in control rods for reactors. -
[Document Title]
[EHNUR WP 4] ADVANCED NUCLEAR POWER PLANT CONCEPTS AND TIMETABLES FOR THEIR COMMERCIAL DEPLOYMENT Steven C. Sholly1 VIENNA, June 2013 1 Institute of Safety/Security and Risk Sciences, University of Natural Resources and Life Sciences Copyright Vienna, June 2013 Media owner and editor: University of Natural Resources and Life Sciences Vienna, Department of Water, Atmosphere and Environment, Institute of Safety and Risk Sciences, Borkowskigasse 4, 1190 Wien, Austria URL: http://www.risk.boku.ac.at ReportWP4 – Advanced Nuclear Power Plant Concepts and Timetables EHNUR EXECUTIVE SUMMARY Most currently operating nuclear power plants are Generation II reactors (except for a few remaining Generation I units and a few Generation III units). Generation III and Generation III+ nuclear power plant concepts are widely recognized to be significant improvements over Generation II reactor designs. Both Generation III designs (standardized designs safer than Generation II) and Generation III+ designs (standardized designs safer than Generation II and with the expectation of greater economy of scale) are available for immediate deployment. The absolute minimum schedule for a Generation III or III+ nuclear power plant project is 10 years from feasibility study to completion of startup testing. Such a schedule is only achievable by: (a) an experienced utility, (b) with the reactor sited at an existing nuclear power plant site, and (c) with a design for which first-of-a-kind engineering (FOAKE) is complete. Under other circumstances (e.g. a utility new to nuclear generation, a greenfield site, a utility in a country without significant nuclear infrastructure, a nuclear power plant design where FOAKE has not yet been accomplished), the schedule would extend from fifteen to seventeen years and perhaps more. -
Factors Shaping Land-Use Change in Rural Tamil Nadu: a Micro-Level Study
Draft Not to be Quoted Peripheral Agriculture? Macro and Micro Dynamics of Land Sales and Land Use Changes in the Changing ‘Rural’ Economy of Kancheepuram M. Vijayabaskar and Ajit Menon Madras Institute of Development Studies Introduction On the outskirts of Chennai, land is increasingly being converted from agricultural to non-agricultural use, a process that is often mediated by land sales. This phenomena confirms recent findings that agricultural land markets are increasingly active and that institutional constraints on the sale of agricultural lands are less of an impediment than they were twenty years ago. So how do these land markets function and what are the implications of such markets for agriculture? There are two broadly divergent views about agricultural land markets. The first sees agricultural markets as a way to improve efficiency of agriculture. The second situates such markets in wider processes of development and capital accumulation and often associates it with the phenomena of land grabbing both within agriculture and outside of it. While we situate ourselves closer to the second view, namely that activation of agricultural land markets is the result of particular priorities of development, we suggest the need for a much more regionally grounded analysis that unpackages how state policies affect land markets, what the micro- politics of land sales entail and how such land transactions affect different categories of farmers. Tamil Nadu’s pattern of socio-economic development over the last two decades has been characterized by two important features. First, the economy has witnessed a higher overall growth rate than that of the country as a whole. -
Decommissioning of Nuclear Facilities
Decommissioning of Nuclear Facilities GRS - S - 52 ISBN 978-3-939355-47-8 Decommissioning of Nuclear Facilities Contents 1 Introduction The decommissioning of nuclear facilities is a challenge which the nuclear 1 Introduction 3 countries will need to address. According to information of the International Atomic Energy Agency (IAEA) of 2011, more than 500 reactors and about 2 Overview 4 275 nuclear fuel cycle facilities have been finally shut down until now. 2.1 Power and prototype reactors 6 2.2 Research reactors 8 After the end of their operational life, nuclear power plants cannot be left to 2.3 Nuclear fuel cycle facilities 9 their own. Since they still may pose a hazard, they have to be decommis- sioned in an orderly manner to protect man and the environment. The term 3 Decommissioning strategies 10 »decommissioning« refers to all measures carried out after granting of a decommissioning licence for a nuclear facility until official supervision i. e. 4 Step-wise dismantling of a nuclear power plant 12 nuclear regulatory supervision, is no longer necessary. This usually implies removal of all parts of the building and restoration of the site to its original 5 Licensing and supervisory procedures 14 condition in form of the so-called »green field«, as for example in the case 5.1 Legal framework 14 of the Niederaichbach nuclear power plant (u Fig. 1). 5.2 Licensing procedure 15 5.3 Supervisory procedure 15 6 Safety and radiation protection 16 6.1 Safety considerations 16 6.2 Radiation protection 18 6.3 Reportable events 19 7 Techniques