Lecture Notes on Non Conventional Power Generation (EE511OE)
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FEIAR Final 130312X
Report No: 5748A/106563 ENVIRONMENTAL IMPACT ASSESSMENT PROCESS: PROPOSED WIND ENERGY FACILITY NEAR COPPERTON, NORTHERN CAPE DEA REF. NO. 12/12/20/2099 FINAL ENVIRONMENTAL IMPACT ASSESSMENT REPORT March 2012 CONSULTANT PROPONENT Aurecon South Africa (Pty) Ltd Plan 8 Infinite Energy (Pty) Ltd PO Box 494 100 New Church St Cape Town Cape Town 8000 8001 Tel: (021) 527 6027 Tel: (021) 801 7272 Fax : (0 21 ) 527 9500 Fax : (021 ) 422 2621 Email: [email protected] Email : [email protected] Aurecon (2012) No unauthorised reproduction, copy or adaptation, in whole or in part, may be made. Proposed Wind Energy Facility near Copperton, Northern Cape: EIA Report Page i PROJECT DETAILS REFERENCE NO. 12/12/20/2099 PROJECT NO. 106563 TITLE FINAL ENVIRONMENTAL IMPACT ASSESSMENT REPORT AUTHORS & PREPARED BY Louise Corbett of Aurecon South Africa (Pty) Ltd CLIENT Plan 8 Infinite Energy (Pty) Ltd CLIENT REPRESENTATIVE Zuben Jessa REPORT STATUS Final REPORT NUMBER 5748A/106563 REPORT DATE March 2012 Author: ................................................ LOUISE CORBETT (Pr. Sci. Nat.) Practitioner: Environmental &Advisory Services Approved by: ................................................ ANDRIES VAN DER MERWE (Pr.Eng.) Technical Director: Environmental & Advisory Services This report is to be referred to in bibliographies as: AURECON. 2012. Proposed Wind Energy Facility near Copperton, Northern Cape: Final Environmental Impact Assessment Report. Report No. 5748A/106563 Aurecon (2012) No unauthorised reproduction, copy or adaptation, -
OCCASION This Publication Has Been Made Available to the Public on The
OCCASION This publication has been made available to the public on the occasion of the 50th anniversary of the United Nations Industrial Development Organisation. DISCLAIMER This document has been produced without formal United Nations editing. The designations employed and the presentation of the material in this document do not imply the expression of any opinion whatsoever on the part of the Secretariat of the United Nations Industrial Development Organization (UNIDO) concerning the legal status of any country, territory, city or area or of its authorities, or concerning the delimitation of its frontiers or boundaries, or its economic system or degree of development. Designations such as “developed”, “industrialized” and “developing” are intended for statistical convenience and do not necessarily express a judgment about the stage reached by a particular country or area in the development process. Mention of firm names or commercial products does not constitute an endorsement by UNIDO. FAIR USE POLICY Any part of this publication may be quoted and referenced for educational and research purposes without additional permission from UNIDO. However, those who make use of quoting and referencing this publication are requested to follow the Fair Use Policy of giving due credit to UNIDO. CONTACT Please contact [email protected] for further information concerning UNIDO publications. For more information about UNIDO, please visit us at www.unido.org UNITED NATIONS INDUSTRIAL DEVELOPMENT ORGANIZATION Vienna International Centre, P.O. Box 300, 1400 Vienna, Austria Tel: (+43-1) 26026-0 · www.unido.org · [email protected] UNIDO INVESTMENT AND TECHNOLOGY PROMOTION OFFICE For China in Beijing The Work Report 2012 December , 2012 1 TABLE OF CONTENTS Forward by Hu Yuandong, Head of the Office Yearly Special Programs under Implementation I. -
White Rock WF EA April 2011 Page 143-210
143 Environmental Assessment 10.2 Communication Impacts 10.2.1 Background Wind turbines have the potential to interfere with television and radio broadcasting, mobile phone reception, microwave links and other radio links such as mobile and CB radio. There are three mechanisms by which wind turbines may cause interference: reflection or scattering, diffraction and near field effects. • Reflection or scattering – occurs when a signal becomes obstructed between the transmitter and a receiver, this could be due to a tower or moving blade component as shown in Figure 10-5. • Diffraction – occurs when a signal is both absorbed and reflected by an object in the signal path. • Near field effects – are caused by electromagnetic fields. This is no longer an issue due to advances in wind turbine technology and compliance with Electromagnetic Emission Standards. A communication impact assessment report was prepared by Epuron. The objectives of this investigation were to identify the potential for impacts from the proposed White Rock Wind Farm on existing telecommunications services in the vicinity of the project, and to identify appropriate mitigation strategies for potential impacts. The full investigation including a glossary of acronyms used in the investigation, maps, footnotes and references is presented in Appendix 6. The following approach was adopted to identify the potential impact of the project on telecommunications: • Identify holders of telecommunications licenses (under the Radiocommunications Act 1992) within a 25km radius of the project, as well as point-to-point links in the vicinity of the project, using information provided on the Australian Communications and Media Authority (ACMA) RADCOM database. • Provide written notification of the project and seek comments from each license holder identified via the ACMA RADCOM database search. -
Windflow Technology: Interim Report 2010
Windflow Technology: Interim Report 2010 Overview – Windflow’s major achievements in the first half of the 09/10 financial year were: • Installing and commissioning the remainder of Stage 3 to take Te Rere Hau (TRH) wind farm to a total of 65 turbines. • Delivering TRH turbines operating availability to above 93% for calendar 2009, and starting 2010 above 95% availability. • Submitting (as part of International Electrotechnical Commission (IEC) Type Certification) the final documents to Lloyds Register in Britain for Class 1A Design Evaluation of the Windflow 500. • Gaining resource consent to develop the 25 turbine Long Gully wind farm in Wellington. Financial Results - Windflow continued to produce a positive gross profit for the half year. Consolidated revenue for the six months was $13.597 million (compared with $11.834 million for the previous comparable six month period). Direct production costs including turbine costs for the same period were $12.694 million (compared with $10.841 million for the previous year) resulting in a gross profit of $0.903 million for the period compared with $0.993 million for the previous year). The result is that Windflow has recorded a half-year loss of $1.628 million (compared with $ 1.082 million last year). Cash held at 31 December 2009 was $2.034 million, a reduction of $9.693 million for the six months. The reduction in cash held is attributable to an anticipated cash outflow during the latter stages of production, the dispute with NZ Windfarms, and some production related timing impacts. Windflow expects to generate a cash surplus from operations over the coming period with a corresponding improvement in its cash position. -
Action Points to Advance Commercialisation of the Dutch Tidal Energy Sector
Action points to advance commercialisation of the Dutch tidal energy sector An analysis of the tidal energy Technological Innovation System in combination with lessons learned from the development of the wind energy industry Master thesis J.P. van Zuijlen Figure 1. Eastern Scheldt storm surge barrier. Source: http://dutchmarineenergy.com/ Name: Johannes Petrus (Jan) van Zuijlen Student nr: 5610494 Email: [email protected] Utrecht University University supervisors: 1st: Prof. dr. Gert Jan Kramer 2nd: Dr. Paul Schot University innovation supervisor: Dr. Maryse M.H. Chappin ECTS: 30 Company: Dutch Marine Energy Centre Supervisor: Britta Schaffmeister MSc Date: 19/01/2018 2 Abstract Water management has traditionally been focused on water safety, hygiene and agricultural problems, however, given the current need for sustainability in order to combat climate change, the possible production of sustainable energy is a desirable extension of integral water management. Tidal energy is a form of ocean energy which harnesses energy from the tides and has the potential to contribute significantly to sustainable energy solutions in certain coastal regions, thereby reducing carbon emissions and fighting climate change worldwide. Activities surrounding tidal energy have grown substantially over the last 10 years in Europe as well as in the Netherlands, however the technology is diffusing slowly. The aim of this thesis is finding action points that will advance commercialisation of the Dutch tidal energy sector. The method consists of a desk study on the evolution of wind energy in combination with a Technological Innovation System analysis of the Dutch tidal energy sector for which 12 professionals have been interviewed. This study showed that the following three aspects of the tidal energy TIS performance poorly and need attention: Market formation, the creation of legitimacy and knowledge development. -
An Overview of the Best Suitable Locations for Marine Renewable
An overview of the best suitable locations for marine renewable energy (MRE) development in the PECC economies given local constraints and opportunities: ‘The best locations worldwide’ Marc Le Boulluec Energy Transition 2013-2014 Transition Energy [email protected] June 24-25, 2014 | Santiago, Chile | 2014 June24-25, Ifremer, Centre de Bretagne Laboratoire Comportement des Structures en Mer PECC International Project: Project: PECCInternational From Prototype to Market: Development of marine renewable energy policies and regional cooperation 1 What are : ‘The best locations worldwide’ ? Energy Transition 2013-2014 Transition Energy June 24-25, 2014 | Santiago, Chile | 2014 June24-25, No definite answer but a combination of items to address PECC International Project: Project: PECCInternational and some possible tracks From Prototype to Market: Development of marine renewable energy policies and regional cooperation 2 Best locations = Combination of Resource availability versus Loads on structures Energy use at short distance or Energy transport on long distance Grid connection and energy storage Industry and transport infrastructures : shipyards, harbours,… Energy Transition 2013-2014 Transition Energy June 24-25, 2014 | Santiago, Chile | 2014 June24-25, Facilities and associated manpower (training and education) Installation Operation and maintenance Dismantling PECC International Project: Project: PECCInternational Monitoring Environmental and Social acceptability From Prototype to Market: Development of marine renewable energy policies and regional cooperation 3 Resource and loads addressed during PECC Seminar 2 on Marine Resources: Oceans as a Source of Renewable Energy Wind Currents Waves Energy Transition 2013-2014 Transition Energy June 24-25, 2014 | Santiago, Chile | 2014 June24-25, Thermal + Biomass + Salinity gradient PECC International Project: Project: PECCInternational From Prototype to Market: Development of marine renewable energy policies and regional cooperation 4 Wind energy Wind energy is an intermittent resource. -
Dynamic Tidal Power (Dtp): a Review of a Promising Technique for Harvesting Sustainable Energy at Sea
DYNAMIC TIDAL POWER (DTP): A REVIEW OF A PROMISING TECHNIQUE FOR HARVESTING SUSTAINABLE ENERGY AT SEA From : Harmen Talstra, Tom Pak (Svašek Hydraulics) To : ir. W.L. Walraven (Stichting DTP Netherlands) Date : 29 July 2020 Reference : 2037/U20232/A/HTAL Checked by : A.J. Bliek Status : Draft on behalf of whitepaper 1 INTRODUCTION This memorandum describes the technique of Dynamic Tidal Power (DTP), a conceptually new way of harvesting large-scale tidal energy at open sea; in particular we focus upon the hydrodynamic aspects of it. At present, most existing installations exploiting tidal energy encompass a structure at the mouth of a river, estuary or tidal basin. This rather small scale limits the amount of sustainable energy that can be extracted, whereas these type of exploitations may cause conflicts with other (e.g. economical or ecological) functions of vulnerable coastal or estuarine waters. The concept of DTP includes a truly large-scale sustainable energy production by utilizing the tidal wave propagation at open sea. This can be done by creating a water head difference over a (very) long dike, roughly perpendicular to the local tidal flow direction, taking advantage of the oscillatory dynamic behaviour of tidal waves. These dikes can be considered as long sequences of pre-fab solid dike modules, containing a large concentration of energy turbines. Dikes can be either attached to an existing coast line, or be constructed at a detached “stand-alone” location at open sea (for instance in combination with an offshore wind farm). The presence of such long dikes at open sea can possibly be utilized for additional economical and environmental functionalities as well. -
Silverton Wind Farm
Bird and Bat Risk Assessment SILVERTON WIND FARM JULY 2016 6773 Final V1.1 i Document Verification Project Title: Bird and Bat Risk Assessment Silverton Wind Farm Project Number: 6773 Project File Name: Silverton BBRA_draft 050616.docx Revision Date Prepared by (name) Reviewed by (name) Approved by (name) Draft V1 10/06/2016 Bianca Heinze Brooke Marshall Brooke Marshall Final V1 22/06/2016 Bianca Heinze Brooke Marshall Brooke Marshall Final V1.1 15/07/2016 Brooke Marshall (minor Brooke Marshall changes NGH Environmental prints all documents on environmentally sustainable paper including paper made from bagasse (a by- product of sugar production) or recycled paper. NGH Environmental Pty Ltd (ACN: 124 444 622. ABN: 31 124 444 622) and NGH Environmental (Heritage) Pty Ltd (ACN: 603 938 549. ABN: 62 603 938 549) are part of the NGH Environmental Group of Companies. 6773 Final v1.1 ii CONTENTS 1 INTRODUCTION .......................................................................................................................... 1 1.1 BACKGROUND ......................................................................................................................................1 1.2 APPROACH OF THIS ASSESSMENT ........................................................................................................2 2 GENERAL SYNOPSIS OF WIND FARM OPERATION IMPACTS UPON BIRDS AND BATS .................... 4 2.1 COLLISION AND ALIENATION IMPACTS ................................................................................................4 2.2 -
Tidal Power: an Effective Method of Generating Power
International Journal of Scientific & Engineering Research Volume 2, Issue 5, May-2011 1 ISSN 2229-5518 Tidal Power: An Effective Method of Generating Power Shaikh Md. Rubayiat Tousif, Shaiyek Md. Buland Taslim Abstract—This article is about tidal power. It describes tidal power and the various methods of utilizing tidal power to generate electricity. It briefly discusses each method and provides details of calculating tidal power generation and energy most effectively. The paper also focuses on the potential this method of generating electricity has and why this could be a common way of producing electricity in the near future. Index Terms — dynamic tidal power, tidal power, tidal barrage, tidal steam generator. —————————— —————————— 1 INTRODUCTION IDAL power, also called tidal energy, is a form of ly or indirectly from the Sun, including fossil fuels, con- Thydropower that converts the energy of tides into ventional hydroelectric, wind, biofuels, wave power and electricity or other useful forms of power. The first solar. Nuclear energy makes use of Earth's mineral depo- large-scale tidal power plant (the Rance Tidal Power Sta- sits of fissile elements, while geothermal power uses the tion) started operation in 1966. Earth's internal heat which comes from a combination of Although not yet widely used, tidal power has poten- residual heat from planetary accretion (about 20%) and tial for future electricity generation. Tides are more pre- heat produced through radioactive decay (80%). dictable than wind energy and solar power. Among Tidal energy is extracted from the relative motion of sources of renewable energy, tidal power has traditionally large bodies of water. -
Energy from Water Factsheet
FACTSHEET ENERGY FROM WATER TECHNOLOGY DESCRIPTION Name technology Dynamic Tidal Power Date of factsheet 11-12-2020 Author Ruud van den Brink and Sam Lamboo Description Dynamic Tidal Power (DTP) is a technique which generates energy from the interaction between a tidal wave running along the coast and a dam that is tens of kilometers long at a right angle to the tidal wave. Two new tidal waves are created along the entire length of the dam, which are exactly in opposite phase to each other. So whenever a new crest appears on the left along the dam, there is a new valley on the right, and 6 hours later the other way around. As a result, along the total dam length, the head changes in size and direction over time. By creating openings (approx. 10% is considered optimum) for turbines in the dam, electricity can be generated (Hulsbergen, 2008, May, 2012). There are several variations of DTP, of which the two most important are: (1) a dam of 30 to 50 km from the coast with a perpendicular dam (T-profile) of several tens of kilometers at the end. (2) a dam of 30 to 50 km not connected to the coast with a so-called whale tail at both ends (Walraven, 2020). The yield of a DTP system increases with the length of the dam by a power of 2.5 (Hulsbergen, 2008). A 50 km dam therefore provides considerably more energy per kilometer at a lower cost than a 30 km dam. Mei (2020) applies an analytical model in which almost the same drop over a straight dam of 20, 30, 40 and 50 km is found as according to the approach of Kolkman and Hulsbergen (2005, 2008). -
Environmental Impact Assessment the Barbados Light & Power Company Limited Lamberts East Wind Farm Generating Station Draft
ENVIRONMENTAL IMPACT ASSESSMENT THE BARBADOS LIGHT & POWER COMPANY LIMITED LAMBERTS EAST WIND FARM GENERATING STATION DRAFT Submitted to: The Barbados Light & Power Company Limited P.O. Box 142 Garrison Hill, St. Michael Barbados, WI Submitted by: AMEC Earth & Environmental a division of AMEC Americas Limited 160 Traders Blvd. E., Suite 110 Mississauga, Ontario L4Z 3K7 August 2006 TV 61036 Environmental Impact Assessment - DRAFT REPORT The Barbados Light & Power Company Limited Lamberts East Wind Farm TV 61036 August 2006 EXECUTIVE SUMMARY Project Proposal Barbados Light and Power Company Limited is applying to the Town and Country Development Planning Office for planning permission to construct a 10 MW wind farm comprised of 11 wind turbines, associated control building, and access tracks on land at Lambert’s East in the parish of St. Lucy, Barbados. Each turbine will have a tubular tower of up to 55m height, and three rotor blades with a maximum rotor diameter of 56m. Project Schedule Barbados Light and Power Company Limited plans to commence development of the project during 2007 with completion early in 2008. Additional site studies such as geotechnical testing are required to complete the design during 2006. Commencement of construction will be dependent on the overall planning approvals and the delivery of turbines. It is estimated that the construction period will take approximately 6 months. Approach The Environmental Impact Assessment was completed to meet the requirements as set out in the1998 Environmental Impact Assessment Guidelines and Procedures for Barbados and also followed the Government of Canada guidelines titled Environmental Impact Statement Guidelines for Screenings of Inland Wind Farms Under the Canadian Environmental Assessment Act. -
Application for Generation License
Application for Generation License Lal Lal Wind Farms Nom Co Pty Limited ABN: 37 625 768 774 Website: www.lallalwindfarms.com.au Tel: 1800 187 183 2 TABLE OF CONTENTS 1. Information on the Applicant and Nature of the application ____________ 4 1.1 Introduction __________________________________________________________ 4 1.2 Applicant Details ______________________________________________________ 5 1.3 Corporate Structure ____________________________________________________ 5 1.4 Organisational Structure ________________________________________________ 6 1.5 Project Expertise ______________________________________________________ 8 1.6 Experience of Key Personnel ____________________________________________ 11 1.7 Details of key contracts and agreements ___________________________________ 12 1.8 Planning and Environment ______________________________________________ 16 2. Essential services commisson objectives _________________________ 19 2.1 Efficiency in the industry and incentives for long term investment _____________ 19 2.2 Financial viability of the industry _______________________________________ 19 2.3 The degree of, and scope for, competition within the industry, including countervailing market power and information asymmetries ___________________________________ 20 2.4 The relevant health, safety, environmental and social legislation applying to the industry ________________________________________________________________ 20 2.5 The benefits and costs of regulation for consumers and regulated entities _______ 20 3. Information