Page Protected with Pending Changes Level 1 Dam from Wikipedia, the Free from Wikipedia, the Free Encyclopedia Encyclopedia Chan
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Dam 1 a Dam Is a Barrier That Impounds Water Or Underground Streams. Dams Generally Serve the Primary Purpose of Retaining Water
Dam 1 Dam A dam is a barrier that impounds water or underground streams. Dams generally serve the primary purpose of retaining water, while other structures such as floodgates or levees (also known as dikes) are used to manage or prevent water flow into specific land regions. Hydropower and pumped-storage hydroelectricity are often used in conjunction with dams to generate electricity. A dam can also be used to collect water or for storage of water which can be evenly distributed between locations. Hoover Dam, a concrete arch-gravity dam in Black Canyon of the Colorado River. Lake Mead in the background is impounded by the dam. Glen Canyon Dam Dam 2 A sideview of the Lake Vyrnwy dam, in Wales, finished in 1888 History The word dam can be traced back to Middle English,[1] and before that, from Middle Dutch, as seen in the names of many old cities.[2] Early dam building took place in Mesopotamia and the Middle East. Dams were used to control the water level, for Mesopotamia's weather affected the Tigris and Euphrates rivers, and could be quite unpredictable. The earliest known dam is the Jawa Dam in Jordan, 100 kilometres (62 mi) northeast of the capital Amman. This gravity dam featured an originally 9 m (30 ft) high and The Roman dam at Cornalvo in Spain has been in use for almost two millennia. 1 m (3 ft 3 in) wide stone wall, supported by a 50 m (160 ft) wide earth rampart. The structure is dated to 3000 BC.[3][4] The Ancient Egyptian Sadd-el-Kafara Dam at Wadi Al-Garawi, located about 25 km (16 mi) south of Cairo, was 102 m (335 ft) long at its base and 87 m (285 ft) wide. -
Water Supply for Rural Areas and Small Communities
WORLD HEALTH ORGANIZATION MONOGRAPH SERIES No. 42 I WATER SUPPLY FOR RURAL AREAS AND SMALL COMMUNITIES WATER SUI 'PLY FOR RURAL AR EAS AND SMALL COMMT JNITIES tIf1 EDMUNDG. WAGE 111 Chief Engineer and Associate Chief 4 f Field Party, Division of Health and Sani ztion, Institute of Inter-American / fairs, Rio de Janeiro, Brazil Sanitary Engineer, Division of Environmental Sar tation, World Health Organization, Genevh Switzerland WORLD HEALTH ORGA 'IZATION PALAIS DES NATIONS GENEVA Authors alone are responsible for views expressed in the Monograph Series of the World Health Organization. The mention of specific companies or of certain manufacturers' products does not imply that they are endorsed or recommended by the World Health Organization in preference to others of a similar nature which are not mentioned. Proprietary names are distinguished by initial capital letters. PRINTED IN SWITZERLAND CONTENTS I I I Page I I. Introduction. ............-\ ~ ........ 9 Chapter 1. Basic considerations. ....( ........ 13 I Chapter 2. Planning. .................. 26 Chapter 3. Ground water .......1 ........ 57 ................. Chapter 4. Pumps - I 121 Chapter 5. Surface water .......i ........ 161 Chapter 6. Treatment under rural conditions ....... 171 Chapter 7. Distribution and use ....\ ........ 194 Chapter 8. Importance of management . I, ........ 227 Chapter 9. Personnel and training .......... 232 Chapter 10. Administration and finance ......... 236 Chapter 11. Operation and maintenance . 1 ........ 243 I Chapter 12. Long-term planning ............ 248 WATER SUPPLY FOR RURAL AREAS ANNEXES Page Annex 1. List of reviewers .................... Annex 2. Conversion factors .................... Annex 3. Flow measurements .................... Annex 4 . Collection of water samples ................ Annex 5 . Construction of hand-dug wells ............ Annex 6. Typical specifications for a hand pump .......... -
Orders of Magnitude (Length) - Wikipedia
03/08/2018 Orders of magnitude (length) - Wikipedia Orders of magnitude (length) The following are examples of orders of magnitude for different lengths. Contents Overview Detailed list Subatomic Atomic to cellular Cellular to human scale Human to astronomical scale Astronomical less than 10 yoctometres 10 yoctometres 100 yoctometres 1 zeptometre 10 zeptometres 100 zeptometres 1 attometre 10 attometres 100 attometres 1 femtometre 10 femtometres 100 femtometres 1 picometre 10 picometres 100 picometres 1 nanometre 10 nanometres 100 nanometres 1 micrometre 10 micrometres 100 micrometres 1 millimetre 1 centimetre 1 decimetre Conversions Wavelengths Human-defined scales and structures Nature Astronomical 1 metre Conversions https://en.wikipedia.org/wiki/Orders_of_magnitude_(length) 1/44 03/08/2018 Orders of magnitude (length) - Wikipedia Human-defined scales and structures Sports Nature Astronomical 1 decametre Conversions Human-defined scales and structures Sports Nature Astronomical 1 hectometre Conversions Human-defined scales and structures Sports Nature Astronomical 1 kilometre Conversions Human-defined scales and structures Geographical Astronomical 10 kilometres Conversions Sports Human-defined scales and structures Geographical Astronomical 100 kilometres Conversions Human-defined scales and structures Geographical Astronomical 1 megametre Conversions Human-defined scales and structures Sports Geographical Astronomical 10 megametres Conversions Human-defined scales and structures Geographical Astronomical 100 megametres 1 gigametre -
List of Dams and Reservoirs in India 1 List of Dams and Reservoirs in India
List of dams and reservoirs in India 1 List of dams and reservoirs in India This page shows the state-wise list of dams and reservoirs in India.[1] It also includes lakes. Nearly 3200 major / medium dams and barrages are constructed in India by the year 2012.[2] This list is incomplete. Andaman and Nicobar • Dhanikhari • Kalpong Andhra Pradesh • Dowleswaram Barrage on the Godavari River in the East Godavari district Map of the major rivers, lakes and reservoirs in • Penna Reservoir on the Penna River in Nellore Dist India • Joorala Reservoir on the Krishna River in Mahbubnagar district[3] • Nagarjuna Sagar Dam on the Krishna River in the Nalgonda and Guntur district • Osman Sagar Reservoir on the Musi River in Hyderabad • Nizam Sagar Reservoir on the Manjira River in the Nizamabad district • Prakasham Barrage on the Krishna River • Sriram Sagar Reservoir on the Godavari River between Adilabad and Nizamabad districts • Srisailam Dam on the Krishna River in Kurnool district • Rajolibanda Dam • Telugu Ganga • Polavaram Project on Godavari River • Koil Sagar, a Dam in Mahbubnagar district on Godavari river • Lower Manair Reservoir on the canal of Sriram Sagar Project (SRSP) in Karimnagar district • Himayath Sagar, reservoir in Hyderabad • Dindi Reservoir • Somasila in Mahbubnagar district • Kandaleru Dam • Gandipalem Reservoir • Tatipudi Reservoir • Icchampally Project on the river Godavari and an inter state project Andhra pradesh, Maharastra, Chattisghad • Pulichintala on the river Krishna in Nalgonda district • Ellammpalli • Singur Dam -
University of Dundee DOCTOR of PHILOSOPHY Exploring
University of Dundee DOCTOR OF PHILOSOPHY Exploring Environmental Justice in Small-Scale Hydroelectricity Power Plant (HPP) Development in Rural Turkey Sayan, Ramazan Caner Award date: 2016 Link to publication General rights Copyright and moral rights for the publications made accessible in the public portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognise and abide by the legal requirements associated with these rights. • Users may download and print one copy of any publication from the public portal for the purpose of private study or research. • You may not further distribute the material or use it for any profit-making activity or commercial gain • You may freely distribute the URL identifying the publication in the public portal Take down policy If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim. Download date: 26. Sep. 2021 EXPLORING ENVIRONMENTAL JUSTICE IN SMALL-SCALE HYDROELECTRICITY POWER PLANT (HPP) DEVELOPMENT IN RURAL TURKEY Ramazan Caner Sayan PhD Thesis University of Dundee, May 2016 i TABLE OF CONTENTS List of Illustrations ………………………………………………………………………vi Abbreviations……………………………………………………………………………vii Acknowledgements………………………………………………………………………ix Declarations……………………………………………………………………………..xii Abstract…………………………………………………………………………………xiv CHAPTER 1: INTRODUCTION………………………………………………………1 1.1 Background Information……………………………………………………………3 1.2 -
River Linking in India: Downstream Impacts on Water Discharge and Suspended Sediment Transport to Deltas
Higgins, SA, et al. 2018 River linking in India: Downstream impacts on water discharge and suspended sediment transport to deltas. Elem Sci Anth, 6: 20. DOI: https://doi.org/10.1525/elementa.269 RESEARCH ARTICLE River linking in India: Downstream impacts on water discharge and suspended sediment transport to deltas Stephanie A. Higgins*,†, Irina Overeem*, Kimberly G. Rogers* and Evan A. Kalina‡,§ To expand agricultural production and address water scarcity, India is moving forward with the National Downloaded from http://online.ucpress.edu/elementa/article-pdf/doi/10.1525/elementa.269/471268/269-4804-1-pb.pdf by guest on 29 September 2021 River Linking Project (NRLP), which will connect 44 rivers via 9,600 km of canals. Here, we compile the first complete database of proposed NRLP dams, reservoirs and canals, including operating schedules for Himalayan infrastructure. We evaluate potential NRLP-derived changes to mean annual water discharge for 29 rivers and mean monthly water and sediment discharge for six rivers flowing to five major deltas. Sediment rating curves are used to quantify the impacts of changing water discharge within the rivers, and basin-wide trapping efficiency is established for new reservoirs. Given full implementation of the NRLP, we forecast reductions in annual suspended sediment transport to deltas of 40–85% (Mahanadi), 71–99% (Godavari) and 60–97% (Krishna) due to profound reservoir trapping and peak streamflow reductions. The Ganga before its confluence with the Brahmaputra is projected to experience a 39–75% reduction in annual suspended load. The Brahmaputra before its confluence with the Ganga is projected to experience a 9–25% reduction in suspended load, despite losing only 6% of its annual water flow. -
The History of Large Federal Dams: Planning, Design, and Construction in the Era of Big Dams
THE HISTORY OF LARGE FEDERAL DAMS: PLANNING, DESIGN, AND CONSTRUCTION IN THE ERA OF BIG DAMS David P. Billington Donald C. Jackson Martin V. Melosi U.S. Department of the Interior Bureau of Reclamation Denver Colorado 2005 INTRODUCTION The history of federal involvement in dam construction goes back at least to the 1820s, when the U.S. Army Corps of Engineers built wing dams to improve navigation on the Ohio River. The work expanded after the Civil War, when Congress authorized the Corps to build storage dams on the upper Mississippi River and regulatory dams to aid navigation on the Ohio River. In 1902, when Congress established the Bureau of Reclamation (then called the “Reclamation Service”), the role of the federal government increased dramati- cally. Subsequently, large Bureau of Reclamation dams dotted the Western land- scape. Together, Reclamation and the Corps have built the vast majority of ma- jor federal dams in the United States. These dams serve a wide variety of pur- poses. Historically, Bureau of Reclamation dams primarily served water storage and delivery requirements, while U.S. Army Corps of Engineers dams supported QDYLJDWLRQDQGÀRRGFRQWURO)RUERWKDJHQFLHVK\GURSRZHUSURGXFWLRQKDVEH- come an important secondary function. This history explores the story of federal contributions to dam planning, design, and construction by carefully selecting those dams and river systems that seem particularly critical to the story. Written by three distinguished historians, the history will interest engineers, historians, cultural resource planners, water re- source planners and others interested in the challenges facing dam builders. At the same time, the history also addresses some of the negative environmental consequences of dam-building, a series of problems that today both Reclamation and the U.S. -
The International Canal Monuments List
International Canal Monuments List 1 The International Canal Monuments List Preface This list has been prepared under the auspices of TICCIH (The International Committee for the Conservation of the Industrial Heritage) as one of a series of industry-by-industry lists for use by ICOMOS (the International Council on Monuments and Sites) in providing the World Heritage Committee with a list of "waterways" sites recommended as being of international significance. This is not a sum of proposals from each individual country, nor does it make any formal proposals for inscription on the World Heritage List. It merely attempts to assist the Committee by trying to arrive at a consensus of "expert" opinion on what significant sites, monuments, landscapes, and transport lines and corridors exist. This is part of the Global Strategy designed to identify monuments and sites in categories that are under-represented on the World Heritage List. This list is mainly concerned with waterways whose primary aim was navigation and with the monuments that formed each line of waterway. 2 International Canal Monuments List Introduction Internationally significant waterways might be considered for World Heritage listing by conforming with one of four monument types: 1 Individually significant structures or monuments along the line of a canal or waterway; 2 Integrated industrial areas, either manufacturing or extractive, which contain canals as an essential part of the industrial landscape; 3 Heritage transportation canal corridors, where significant lengths of individual waterways and their infrastructure are considered of importance as a particular type of cultural landscape. 4 Historic canal lines (largely confined to the line of the waterway itself) where the surrounding cultural landscape is not necessarily largely, or wholly, a creation of canal transport. -
List of Major Dams in India for Banking & SSC Exams
List of Major Dams in India for Banking & SSC Exams - GK Notes in PDF! Flowing water has always been a treat to watch, but not many people know that flowing water has the ability to light up our homes. In fact, dams that are built on large rivers are the prime source of hydroelectricity. Dams hold the river water and channelize it through pipes or outlets that rotate large turbines for the generation of electricity. In addition to supplying hydroelectricity, dams also act as reservoirs of water, which can be used for irrigation and other domestic uses. Learn about the Major Dams in India for Banking & SSC Exams, which will help you in various competitive exams like SBI PO, SSC CGL, SSC CPO, IBPS PO, NABARD, Railways Group D, etc. Major Dams in India for Banking & SSC Exams Although there is a lot of speculation of the origin of dams, some strong pieces of evidence in history point out to the Jawa Dam that was constructed in 3000 BCE. After the success of the Jawa Dam, Egyptians built the Sadd el-Kafara, or Dam of the Pagans, which was mainly for irrigation purposes. In the current era, the Quatinah Barrage or Lake Homs Dam, located in Syria, is the oldest operational dam in the world. • In India, the oldest dam is the Grand Anicut Dam or Kallanai Dam which was built on the Cauvery River by King Karikalan of Chola dynasty in the first century. • This dam was built with uneven stones and stands at a length of 329 metres and width of 20 metres. -
World Bank Document
Document of The World Bank FOR OFFICIAL USE ONLY Public Disclosure Authorized Report No: 24899 IMPLEMENTATION COMPLETION REPORT (CPL-30240; SCL-3024A) Public Disclosure Authorized ON A LOAN IN THE AMOUNT OF US$ 485 MILLION TO THE GOVERNMENT OF INDIA FOR THE NATHPA JHAKRI POWER PROJECT Public Disclosure Authorized 09/25/2002 Energy & Infrastructure Unit South Asia Region This document has a restricted distribution and may be used by recipients only in the performance of their official duties. Its contents may not otherwise be disclosed without World Bank authorization. Public Disclosure Authorized CURRENCY EQUIVALENTS (Exchange Rate Effective ) Currency Unit = Rupee (Rs.) Rs. 13.3 = US$ I (at SAR) US$ I = Rs. 48.5 (at Loan Closing Date) FISCAL YEAR April 1 March 31 ABBREVIATIONS AND ACRONYMS CAT Catchment Area Treatment CEA Central Electricity Authority CERC Central Electricity Regulatory Commission CMD Chairman and Managing Director CWC Central Water Commission DRB Disputes Resolution Board GHP Government of Himachal Pradesh GOI Government of India HPSEB Himachal Pradesh State Electricity Board IBRD International Bank for Reconstruction and Development ICB International Competitive Bidding ICR Implementation Completion Report IERR Internal Economic Rate of Return NHPC Nathpa Hydro Power Corporation NJPC National Jhakri Power Corporation PAFs Project Affected Families PAPs Project Affected Persons PFC Power Finance Corporation PIB Public Investment Board PLF Plant Load Factor POE Panel of Experts PPA Power Purchase Agreement QAG Quality -
Civil/Architecture 2020
w w w. a n e b o o k s . c o m CIVIL ENGINEERING CIVIL ENGINEERING Structural Dynamics Architecture of Ancient Tamil Nadu Vibrations & Systems The Kallanai Dam Story Madhujit Mukhopadhyay Satyajit Ghosh, Manu Jaiswal Contents Contents A Historical Prelude, Chola Art and Architecture, Kallanai–The Grand Anaicut: A beacon of ancient Preface Chapter 1 Introduction Chapter 2 Free Vibration of Single Degree of Freedom System structural engineering, Quatinah Barrage / Lake Homs Dam, Syria, Proserpina Dam, Spain, Cornalvo Chapter 3 Forced Vibration of Single Degree of Freedom System Chapter 4 Numerical Methods In Dam, Spain, Kallanai Dam / Grand Anaicut, India, Sayamaike Dam, Japan, Tonnur Kere / Moti Talab Structural Analysis: Applied To Sdf Systems Chapter 5 Vibration of Two Degree of Freedom Dam, India, Kebar Dam, Iran, Almansa Dam, Spain, The Kollidam (Coleroon) Side Water Regulators, System Chapter 6 Free Vibration of Multiple Degrees of Freedom System Chapter 7 Forced 3D Model of The Cauvery regulators–Present Day Design, The Cauvery Regulators, Spillway Design Vibration Analysis of Multiple Degrees of Freedom System Chapter 8 Free Vibration Analysis of and Dam Sectioning, The Vennar Regulators, 3D Model of The Vennar Regulators–Present Day Continuous Systems Chapter 9 Forced Vibration of Continuous Systems Chapter 10 Dynamic Design, 3D Model of The Kollidam Side Water Regulators–Present Day Design, The Grand Anaicut Direct Stiffness Method Chapter 11 Vibration of Ship And Aircraft As A Beam Chapter 12 Finite Canal System, Structural Nuances -
D I S. S E R T a T 1 0 N Making the Sahara Desert Green Sustainable
Die approbierte Originalversion dieser Dissertation ist in der Hauptbibliothek der Technischen Universität Wien aufgestellt und zugänglich. TECHNISCHE http://www.ub.tuwien.ac.at UNIVERSITÄT The approved original version of this thesis is available at the main library of the Vienna WIEN University of Technology. http://www.ub.tuwien.ac.at/eng D I S. S E R T A T 1 0 N Making the Sahara Desert Green Sustainable transport of bottom lake sediments via pipelines to produce new agriculture land from desert ausgeführt zum Zwecke der Erlangung des akademischen Grades einer Doktorin der Technischen Wissenschaften und Wirtschaftswissenschaften Architektur/Raumplanung und Raumordnung unter der Leitung von Ao. Univ. Prof. Dipl.-Ing. Dr. techn. Georg Hauger Department für Raumentwicklung, Infrastruktur und Umweltplanung Fachbereich Verkehrssystemplanung E280/5 Begutachtung durch Priv. Doz. DI Dr. Hans Peter Rauch Prof. Dr. Reda Ragab Mohamed Shahin eingereicht an der Technischen Universität Wien Fakultät für Architektur und Raumplanung von Dipl. Eng.Arch. Vesela Tanaskovic Matrikelnummer: 1129327 Wallrissstrasse 68/33 1180 Vienna Wien, am ·g_ Dec 2018 � - ------- Abstract In a world which will be home to 9 billion people by the middle of this century, it will undoubtedly be a substantial challenge for humanity to produce enough food and other vital resources. Today there are tens of millions of hungry living in Africa. These people are missing not just food and potable water but also tap water, sewage, electricity, jobs and other living amenities. This research focused on addressing these issues. One of the main problems identified for the mid-21st century will be the availability of fresh water.