25-52 Wind.Qxd:Layout 1

Total Page:16

File Type:pdf, Size:1020Kb

25-52 Wind.Qxd:Layout 1 Wind Energy A local body’s way A Tamil Nadu Panchayat invests in wind energy Awareness about wind power is very high in Tamil Nadu danthurai Panchayat in Tamil Shanmugam decided to take advantage Nadu’s Coimbatore district had a of this. He formed a committee consisting Otaste of green energy back in of panchayat members and advisers from 1996 when it installed solar street the government to advise on utilisation lighting. So when its ever-increasing of solar and wind energy on a large scale. population required bigger energy plans, The panchayat committee initially it could take the next step in 2006: invest planned to install a hybrid system of solar in a wind mill, even though this was not and wind energy because a government something panchayats are known to do. scheme provided 90 per cent subsidy to Odanthurai could do it because of the hybrid system. As the system was Odanthurai three reasons. One, its president had withdrawn, the panchayat decided to bought a 350 kW an exposure to developments in the invest in wind mill. renewable energy sector through energy Wind power company Suzlon had windmill from a fairs and training programmes. Two, built a wind farm near Maivadi, 140 km Suzlon wind government advisers readily guided it on from Odanthurai. In India’s wind farm farm, 140 km the use of renewable energy. Three, the regime, turbine manu facturers take care from the Tamil Nadu Electricity Board offered of all aspects of wind farm development panchayat, for power banking option. The major drive —starting from land acquisition, `1.55 crore. It towards renewable energy happened commissioning to operations and pooled some between 2001 and 2009, under the maintenance. leadership of its panchayat president, money and Rangaswamy Shanmugam. Willing bank, enterprising borrowers loaned the rest Odanthurai is located close to the Odanthurai panchayat purchased one of from a bank wind farm regions of Tamil Nadu. Suzlon’s windmills of 350 kW capacity. It 51 State of Renewable Energy in India ODANTHURAI PANCHAYAT WINDMILL FACTS Panchayat Odanthurai panchayat located near to Mettupalayam town in Karamadai block of Coimbatore city. It is about 40 kilometers north of city Wind mill In 2006, panchayat purchased a 350 kW wind turbine in Maivadi (140 kilometres from Odanthurai) developed by Suzlon Concept behind Wind turbine would feed power to the grid. Panchayat would investment avail banking and net metering facility provided by TNEB. Panchayat could meet their electricity requirement through this facility and earn revenue from excess power sold to the grid ECONOMICS Cost of wind turbine `1.55 crores Source of fund `40 lakhs from panchayat savings. `1.15 crore through a commercial loan from Central Bank of India at 8.5% interest Repayment of loan Wind turbine can produce 6.75 lakh units a year. This is sold at `2.90 to TNEB. The total revenue amounts to `19.575 lakhs. Revenues from the sale of electricity produced in the period 2006-2013 directly went to bank as repayment of loan The panchayat Post loan repayment Panchayat self electricity requirement 4.5 lakh units/year. estimated it Remaining 2.25 lakhs units of power sold to the board at `2.90 would repay the generating revenue of `6.525 lakh rupees a year loan in six-seven Source: CSE visit to Odanthurai and Maivadi years by selling electricity and power is about `19.6 lakh per annum. earn a cool ` 6.5 The state electricity board allows lakh a year after banking of power produced by wind mill. The power produced by wind mills is fed repayment to the grid and is credited to the power producer’s account, which can be availed later. Hence the Odanthurai panchayat can avail their banked power as per their requirement. The remaining unutilised power can be sold to the grid. The The windmill transformer house of Odanthurai Panchayat panchayat estimated it would repay the loan in six-seven years. After paying back cost `1.55 crore. The panchayat pooled in the loan, Odanthurai Panchayat could `40 lakh. The rest was obtained as a earn close to `8 lakh per year after commercial loan from the Central bank of meeting its own public electricity India. The loan is paid from the earnings requirements. from sale of electricity to the Tamil Nadu Today, Odanthurai is a role model of Electricity Board board. self-sustained development, attracting The panchayat’s windmill produces the attention of policy makers and about 0.67 million units of electricity a renewable energy enthusiasts. But it is a year. This power is purchased by the model yet to emulated by others. electricity board at `2.90 per unit. So the revenue generated from the sale of ● ● ● 52.
Recommended publications
  • Impact of Windfarm OWEZ on the Local Macrobenthos Communiy
    Impact of windfarm OWEZ on the local macrobenthos community report OWEZ_R_261_T1_20090305 R. Daan, M. Mulder, M.J.N. Bergman Koninklijk Nederlands Instituut voor Zeeonderzoek (NIOZ) This project is carried out on behalf of NoordzeeWind, through a sub contract with Wageningen-Imares Contents Summary and conclusions 3 Introduction 5 Methods 6 Results boxcore 11 Results Triple-D dredge 13 Discussion 16 References 19 Tables 21 Figures 33 Appendix 1 44 Appendix 2 69 Appendix 3 72 Photo’s by Hendricus Kooi 2 Summary and conclusions In this report the results are presented of a study on possible short‐term effects of the construction of Offshore Windfarm Egmond aan Zee (OWEZ) on the composition of the local benthic fauna living in or on top of the sediment. The study is based on a benthic survey carried out in spring 2007, a few months after completion of the wind farm. During this survey the benthic fauna was sampled within the wind farm itself and in 6 reference areas lying north and south of it. Sampling took place mainly with a boxcorer, but there was also a limited programme with a Triple‐D dredge. The occurrence of possible effects was analyzed by comparing characteristics of the macrobenthos within the wind farm with those in the reference areas. A quantitative comparison of these characteristics with those observed during a baseline survey carried out 4 years before was hampered by a difference in sampling design and methodological differences. The conclusions of this study can be summarized as follows: 1. Based on the Bray‐Curtis index for percentage similarity there appeared to be great to very great similarity in the fauna composition of OWEZ and the majority of the reference areas.
    [Show full text]
  • New & Renewable Energy
    Seoul - December 6, 2010 Wind Energy in the Netherlands . History . Overview . Offshore . Examples . Conclusions 2 History of wind energy in the Netherlands A windmill is a machine which converts the energy of the wind into rotational motion by means of adjustable vanes called sails Autonomous development in Europe that started in the 11th century Development in the Netherlands leading to a large variety of mills First wind mills for drainage in 1414 Windmills for energy to saw mills, to mills used for crushing seeds, grains, etc. Cheap energy was a major contributing factor to the Golden Age (17th century) of the Netherlands Invention of steam engine (1775) signaled the end of wind mills 1,000 wind mills left out of a total of more than 10,000 3 Kinderdijk 4 Recent history of wind energy in the Netherlands A windmill is a machine which converts the energy of the wind into rotational motion by means of adjustable blades made of synthetic material Renewed interest in wind energy resulted from the oil crisis in 1973 Dutch government support from 1976 Present capacity 2,229MW Government objective to have 6GW installed by 2020 5 Overview wind energy sector in the Netherlands (1) Turbine manufacturers & developers: . Lagerwey in difficulties, restarted as Zephyros, acquired by Hara Kosan, now acquired by STX . Nedwind acquired by NEG-Micon, which in turn acquired by Vestas . Windmaster discontinued . Darwind acquired by XEMC (China) . EWT originally using Lagerwey technology, now developing its own technology . 2B Energy proto type for +6MW offshore turbine 6 Overview wind energy sector in the Netherlands (2) Marine engineering Construction & dredging Electrical design & consulting Building of specialized vessels 7 Overview wind energy sector in the Netherlands (3) Blade manufacturing & testing .
    [Show full text]
  • The German Wind Energy Lobby: How to Successfully Promote Costly Technological Change
    A Service of Leibniz-Informationszentrum econstor Wirtschaft Leibniz Information Centre Make Your Publications Visible. zbw for Economics Michaelowa, Axel Working Paper The German Wind Energy Lobby: How to successfully promote costly technological change HWWA Discussion Paper, No. 296 Provided in Cooperation with: Hamburgisches Welt-Wirtschafts-Archiv (HWWA) Suggested Citation: Michaelowa, Axel (2004) : The German Wind Energy Lobby: How to successfully promote costly technological change, HWWA Discussion Paper, No. 296, Hamburg Institute of International Economics (HWWA), Hamburg This Version is available at: http://hdl.handle.net/10419/19268 Standard-Nutzungsbedingungen: Terms of use: Die Dokumente auf EconStor dürfen zu eigenen wissenschaftlichen Documents in EconStor may be saved and copied for your Zwecken und zum Privatgebrauch gespeichert und kopiert werden. personal and scholarly purposes. Sie dürfen die Dokumente nicht für öffentliche oder kommerzielle You are not to copy documents for public or commercial Zwecke vervielfältigen, öffentlich ausstellen, öffentlich zugänglich purposes, to exhibit the documents publicly, to make them machen, vertreiben oder anderweitig nutzen. publicly available on the internet, or to distribute or otherwise use the documents in public. Sofern die Verfasser die Dokumente unter Open-Content-Lizenzen (insbesondere CC-Lizenzen) zur Verfügung gestellt haben sollten, If the documents have been made available under an Open gelten abweichend von diesen Nutzungsbedingungen die in der dort Content Licence
    [Show full text]
  • Wind Energy Overview
    An overview of Wind Power development in the Midwest Douglas J. Reinemann, Ph.D. Professor of Biological Systems Engineering University of Wisconsin – Madison Wind is one of the fastest growing Renewable energy sources in the world Annual Wind Turbine Installations Worldwide (MW) 6,000 6,000 Worldwide installed capacity (2001): 24,000 MW (~ 12.6 million homes @ 5,000 kWh/home and 30% wind capacity factor) 5,000 5,000 8,100 MW Germany 3,175 MW Spain 4,240 MW U.S. 2,417 MW Denmark 4,000 4,000 MW 45,000 MW predicted by 2005 3,000 3,000 2,000 2,000 1,000 1,000 0 0 1983 1984 1985 1986 1987 1988 1989 1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 Source: Danish Wind Turbine Manufacturers Association & BTM Consult 1 Windmills? Early application of wind was for grinding grain (Wind-Mill) and pumping water (Windmill?) Making Electricity Wind Turbine Wind Energy Conversion System (WECS) Components of a WECS Gearbox Tower Rotor Foundation Controls Generator Illustration Source: RETScreen International www.retscreen.net 2 Where does the wind come from? Solar heating of the earth’s surface High pressure Vs. Low pressure systems Circulation Cell patterns •Hadley Cell (trade winds) •Ferrel Cell •Polar Cell Illustration source: Renewable Energy And where does it go? Power for a Sustainable Future, G. Boyle, 2004, Oxford Press Local Winds Sea Breezes Result of the seas ability to maintain temperature Daytime land heats, sea is cool Nighttime land cools faster than sea Illustration source: Renewable Energy Power for a Sustainable Future, G.
    [Show full text]
  • Windmill Worksheet [From the NOVA Web Site]
    Windmill Worksheet [From the NOVA Web site] Teacher Notes Part of what students are doing in this activity is reverse engineering, in which students look at something that exists to figure out how it works rather than building from the ground up. On the Windmill Template (Figure A), the solid lines indicate where to cut the paper and the dot- ted lines indicate where to fold (but not crease) it. The circles indicate where to punch holes. Figure B shows how the corners of the windmill are folded over and attached to the straw and how the rubber bands are used to keep the windmill in place. Figure C shows the cup and string attachment, and Figure D shows how to hold the machine so that the straw spins freely as the windmill turns. Students will discover through trial and error how best to attach the string to the straw. Because there is no exact description of materials, student choices may vary. For example, one team may choose regular bond paper for the windmill while another may choose a card stock. This provides a good opportunity to discuss how different materials behave within the design and why. Students familiar with pinwheels will know that blowing on the windmill causes it to turn. Students may then use this information to help them understand how wheel-and-axle machines work. If students are not familiar with this type of simple machine, you may want to identify it at the activity's end. At the end of the activity, students may experiment by changing the size of the windmill, the type of paper used for the windmill, the diameter of the straw, or even substituting entirely new materials.
    [Show full text]
  • Residence Time and Behaviour of Sole and Cod in the Offshore Wind Farm Egmond Aan Zee (OWEZ)
    Residence time and behaviour of sole and cod in the Offshore Wind farm Egmond aan Zee (OWEZ) dr. ir. H.V. Winter, dr. G. Aarts & ir. O.A. van Keeken Report number OWEZ_R_265_T1_20100916 IMARES Wageningen UR (IMARES ĉ institute for Marine Resources & Ecosystem Studies) Report number C038/10 Client: NoordzeeWind 2e Havenstraat 5b 1976 CE IJmuiden Publication Date: 16 September 2010 Report Number C038/10 1 of 50 IMARES is: • an independent, objective and authoritative institute that provides knowledge necessary for an integrated sustainable protection, exploitation and spatial use of the sea and coastal zones; • an institute that provides knowledge necessary for an integrated sustainable protection, exploitation and spatial use of the sea and coastal zones; • a key, proactive player in national and international marine networks (including ICES and EFARO). © 2010 IMARES Wageningen UR IMARES, institute of Stichting DLO is The Management of IMARES is not responsible for resulting damage, as well as for registered in the Dutch trade record damage resulting from the application of results or research obtained by IMARES, nr. 09098104, its clients or any claims related to the application of information found within its BTW nr. NL 806511618 research. This report has been made on the request of the client and is wholly the client's property. This report may not be reproduced and/or published partially or in its entirety without the express written consent of the client. A_4_3_2ĉV9.1 2 of 50 Report Number C038/10 Contents Summary ..........................................................................................................................
    [Show full text]
  • Members' Directory 2019-2020
    Directory Sponsor MEMBERS’ DIRECTORY RenewableUK 2019-2020 Members’ Directory 2019-2020 Members’ Directory Micro Grid Renewables Generation Solar Electricity Trading Transmission Distribution Demand-Side Centralised Power Response Generation Smart Storage Cities Wind Smart Homes User Demand EVs 25 EUR million Sales in more than Established 6 manufacturing State of the art average annual investments facilities (last 3 years) 50 countries 1950 plants in 3 countries Who we are Tracing its industrial roots back to 1950, Cablel® Hellenic Cables has evolved into a leading European provider of reliable and competitive cable solutions. With 6 manufacturing plants across 3 countries, Cablel® Hellenic Cables covers a wide range of cable products and solutions, from Land and Submarine Power cables to Fiber Optics, Telecommunication cables and Magnet Wires. Cablel® Hellenic Cables offers a wide range of integrated solutions, including design, manufacturing, planning, project management and installation. In-house R&D and testing facilities guarantee continuous product development and innovation. As the world’s need for sustainable and reliable flow of energy and information continues to increase, we remain focused on our mission to provide top-quality products and services meeting the highest technical and sustainability standards set by our customers. HEAD OFFICE: 33, Amaroussiou - Halandriou Str., 151 25 Maroussi, Athens, GREECE Tel.: +30 210 6787 416, +30 210 6787 900, Fax: +30 210 6787 406 [email protected] www.cablel.com 09-13-2019_KX_CABLEL_168x240mm_FINAL.indd
    [Show full text]
  • Construction of a Wind Turbine Project in the Town of Florida, MA
    Construction of a Wind Turbine Project in the Town of Florida, MA A Major Qualifying Project Submitted to the faculty of Worcester Polytechnic Institute in partial fulfillment of the requirements for the Degree of Bachelor of Science Submitted by: Matthew Burger Sean Colella Sean Quinlivan Joel Rousseau Sponsoring Agency: Worcester Polytechnic Institute Submitted To: Project Advisor: Tahar El-Korchi Date: March 1, 2007 windmqp@ wpi.edu Abstract This Major Qualifying Project (MQP) presents recommendations for the design and construction of a feasible 7.5 mega Watt (1.5 mW/turbine) wind turbine power generation plant in the town of Florida, MA. This project addresses the following topics and issues: permitting, land acquisition, turbine foundation design and construction, access road design and construction, operations and maintenance building design, substation design, soil analysis and retaining wall design, power output to the national grid, a detailed cost estimate and environmental conservation issues. 2 Table of Contents 1 Introduction............................................................................................................... 12 1.1 History of Wind Power ..................................................................................... 16 1.2 Wind Turbine Technology................................................................................ 17 1.3 World Wide Wind Energy................................................................................ 19 1.4 Massachusetts Wind Power .............................................................................
    [Show full text]
  • Noise Radiation from Wind Turbines Installed Near Homes: Effects on Health
    NOISE RADIATION FROM WIND TURBINES INSTALLED NEAR HOMES: EFFECTS ON HEALTH With an annotated review of the research and related issues By Barbara J Frey, BA, MA and Peter J Hadden, BSc, FRICS February 2007 June 2007 www.windturbinenoisehealthhumanrights.com 1 NOISE RADIATION FROM WIND TURBINES INSTALLED NEAR HOMES: EFFECTS ON HEALTH With an annotated review of the research and related issues By Barbara J Frey, BA, MA and Peter J Hadden, BSc, FRICS Contents 1.0 Abstract 2.0 Introduction 3.0 Overview of the Problems: Personal Perspectives 4.0 Acoustics 5.0 Health Effects 6.0 Human Rights 7.0 Conclusions References Appendix: Property Values Acknowledgements Note: This paper limits its discussion to wind turbines taller than 50m or from 0.75MW up to 2MW installed capacity. Copyright 2006 BJ Frey & PJ Hadden 2 Section 1.0 ABSTRACT Wind turbines are large industrial structures that create obtrusive environmental noise pollution when built too close to dwellings. This annotated review of evidence and research by experts considers the impact of industrial-scale wind turbines suffered by those living nearby. First, the paper includes the comments by some of the families affected by wind turbines, as well as coverage in news media internationally. The experiences described put a human face to the science of acoustics. Second, the paper reviews research articles within the field of acoustics concerning the acoustic properties of wind turbines and noise. The acoustic characteristics of wind turbines are complex and in combination produce acoustic radiation. Next, the paper reviews the health effects that may result from the acoustic radiation caused by wind turbines, as well as the health effects from noise, because the symptoms parallel one another.
    [Show full text]
  • Windmill Erectors
    Windmill Erectors “Professionals working for professionals” (See reverse side) OLSENBEAL – EXPERIENCE THAT COUNTS! OLSENBEAL specializes in WTG installation including tower, nacelle, and rotor erection. Our roots in the wind turbine installation industry began in 1999 with a small project in Wyoming for SeaWest (now AES). Since that time, we have erected over 1,200MW of WTGs. OLSENBEAL owns several large capacity crawler cranes including Kobelco SL6000 (600-ton capacity) crawler. This crane will set all current large output wind turbine generators. Windmill Erecting Experience (this is not a complete project listing) GE 1.5 MW turbines: • Highmore, SD (27 WTGs), Lamar/Springfield, CO (5 WTGs) • Sweetwater Phase II – Sweetwater, TX (61 WTGs) • High Plains/McFadden Wind Projects – McFadden, WY (85 WTGs) MHI Turbines – • 600 kW – Foote Creek Phases 3 & 4 – Arlington, WY (28 WTGs), Condon Phases 1 & 2 – Condon, OR (83 WTGs), Mountain View I / II – Palm Springs, CA (111 WTGs) • 1MW –Rock River, WY (50 WTGs), Caprock Wind Farm – Tucumcari, NM (60 WTGs) Nordex 1.3MW • Mandan, ND (2 WTGs) Vestas Turbines • V47 – Stateline Ph2 – Wallula, WA (55 WTGs), Mtn. View 3 – Palm Springs, CA (34 WTGs) • V80 – Evanston, WY – (80 WTGs), Hopkins Ridge – Dayton, WA (83 WTGs) • V82 – Ainsworth, NE (36 WTGs) Suzlon S88 Turbines • Mountain Wind Phases 1 & 2 – Fort Bridger, WY (67 WTGs), • Mountain Home, ID (20 WTGs) / Cassia, Idaho (14 WTGs) Clipper C96 Turbines • Flatridge Wind – Nashville, Kansas (40 WTGs) OLSENBEAL is an experienced steel erector and have been erecting for heavy steel / heavy rigging projects since 1987. We are an Advanced Certified Steel Erector with AISC.
    [Show full text]
  • Designing the Most Energy Efficient Wind Turbine Blades
    Designing the Most Energy Efficient Wind Turbine Blades Lesson Plan By Shay Motalebi Primary Subject – Earth Science Secondary Subjects – Physical Science, Social Studies, Technology, Math, Art Grade levels – 8th grade, can be modified to use in 6-12 grades Prep Time – 2 hours for assembling the turbine towers and set up Suggested Class Time – 4 Periods (48 Minutes) And One Block Hour (90 Minutes) WIND ENERGY People have used windmills to harvest wind energy for centuries, but modern technology allows us to convert a windmill’s kinetic energy into electricity that can be stored in batteries or pumped directly into the grid to power homes and businesses. Energy 101 – Wind Turbine https://youtu.be/tsZITSeQFR0 US Department of Energy An introduction to energy production from wind and the way wind turbines work Modern Wind Turbines KidWind - Vernier Challenge : Design a turbine that produces the highest voltage and lifts the most weight, by adjusting different variables that affect the speed of rotation Introduction Rationale • STEAM Education and project based learning at NLA • Fits in the unit of Atmosphere and Weather • Awareness towards the current trends in using clean energy • Fulfills the Engineering Practices required by Mn Science standards and NGSS • Engaging, inquiry, critical thinking • Collaborative learning and problem solving opportunity • Competitive – Students remain interested Relationship to the Subject, Unit or Theme ◦ Wind is a part of the unit of Atmosphere, One of the 4 major systems of the Earth. ◦ The energy produced by wind is a renewable source that benefits the environment by reducing emission of greenhouse gases, fits in the Earth’s Natural Resources standards.
    [Show full text]
  • Wind Power — Energy from Moving Air Wind Is Air in Motion
    Wind Power — Energy from Moving Air Wind is air in motion. It is produced by the uneven heating of the Earth’s surface by the sun. Since the Earth’s surface is made of various land and water formations, it absorbs the sun’s radiation unevenly. When the sun is shining during the day, the air over landmasses heats more quickly than the air over water. The warm air over the land expands and rises, and the heavier, cooler air over water moves in to take its place, creating local winds. At night, the winds are reversed because the air cools more rapidly over land than over water. Similarly, the large atmospheric winds that circle the earth are created because the surface air near the equator is warmed more by the sun than the air over the North and South Poles. Wind is called a renewable energy source because wind will be continually produced as long as the sun shines on the Earth. Today, wind energy is mainly used to generate electricity. The History of Wind Throughout history, people have harnessed the wind in many ways. More than 5,000 years ago, the ancient Egyptians used wind power to sail their ships on the Nile River. Later, people built windmills to run equipment and grind grain. The earliest known windmills, in Persia (Iran), looked like large paddle wheels. Centuries later, the people of Holland improved the basic design of the windmill. They gave it propeller-type blades made of fabric sails and invented ways for it to change direction so that it could continually face the wind.
    [Show full text]