Strategic Review of Offshore Wind Farm Monitoring Data Associated with FEPA Licence Conditions
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Modeling and Dynamic Analysis of Offshore Wind Farms in France: Impact on Power System Stability
04/11/2011 Modeling and dynamic analysis of offshore wind farms in France: Impact on power system stability KTH Master Thesis report number Alexandre Henry Examiner at KTH Dr. Luigi Vanfretti Supervisors at KTH Dr. Luigi Vanfretti and Camille Hamon Supervisor at EDF Dr. Bayram Tounsi Laboratory Electric Power Systems School of Electrical Engineering KTH, Royal Institute of Technology Stockholm, November 2011 Accessibility : .. Front page Page I / III ... Modeling and dynamic analysis of offshore wind farms in France: Impact on KTH EPS power system stability - EDF R&D Abstract Alexandre Henry Page 1 / 90 KTH Master Thesis Modeling and dynamic analysis of offshore wind farms in France: Impact on KTH EPS power system stability - EDF R&D Nomenclature EWEA : European Wind Energy Association UK : United Kingdom EU : European union AC : Alternating current DC : Direct current HVAC : High Voltage Alternating Current HVDC : High Voltage Direct Current PCC : Point of Common Coupling TSO : Transmission System Operator RTE : Réseau de transport d’électricité (French TSO) XLPE : cross linked polythylene insulated VSC : Voltage source converter LCC : Line commutated converter FACTS : Flexible AC Transmission System SVC : Static Var Compensator DFIG : Double Fed Induction Generator MVAC : Medium Voltage Alternating Current ENTSO-E : European Network of Transmission System Operators for Electricity HFF : High Frequency Filter FRT : Fault Ride Through Alexandre Henry Page 2 / 90 KTH Master Thesis Modeling and dynamic analysis of offshore wind farms -
Offshore Wind Submarine Cabling Overview Fisheries Technical Working Group
OFFSHOREoverview WIND SUBMARINE CABLING Fisheries Technical Working Group Final Report | Report Number 21-14 | April 2021 NYSERDA’s Promise to New Yorkers: NYSERDA provides resources, expertise, and objective information so New Yorkers can make confident, informed energy decisions. Our Vision: New York is a global climate leader building a healthier future with thriving communities; homes and businesses powered by clean energy; and economic opportunities accessible to all New Yorkers. Our Mission: Advance clean energy innovation and investments to combat climate change, improving the health, resiliency, and prosperity of New Yorkers and delivering benefits equitably to all. Courtesy, Equinor, Dudgeon Offshore Wind Farm Offshore Wind Submarine Cabling Overview Fisheries Technical Working Group Final Report Prepared for: New York State Energy Research and Development Authority Albany, NY Morgan Brunbauer Offshore Wind Marine Fisheries Manager Prepared by: Tetra Tech, Inc. Boston, MA Brian Dresser Director of Fisheries Programs NYSERDA Report 21-14 NYSERDA Contract 111608A April 2021 Notice This report was prepared by Tetra Tech, Inc. in the course of performing work contracted for and sponsored by the New York State Energy Research and Development Authority (hereafter “NYSERDA”). The opinions expressed in this report do not necessarily reflect those of NYSERDA or the State of New York, and reference to any specific product, service, process, or method does not constitute an implied or expressed recommendation or endorsement of it. Further, NYSERDA, the State of New York, and the contractor make no warranties or representations, expressed or implied, as to the fitness for particular purpose or merchantability of any product, apparatus, or service, or the usefulness, completeness, or accuracy of any processes, methods, or other information contained, described, disclosed, or referred to in this report. -
Final Annual Load Factors for 2018/19 Tnuos Tariffs
Final Annual Load Factors for 2018/19 TNUoS Tariffs October 2017 NGET: Final ALFs for 2018/19 TNUoS Tariffs October 2017 1 Final Annual Load Factors for 2018/19 TNUoS Tariffs This information paper contains the Final Annual Load Factors (ALFs) that National Grid will use in the calculation of Generation TNUoS charges from April 2018. October 2017 October 2017 Contents Executive Summary 4 Annual Load Factors For The 2018/19 Charging Year 5 Table 1: Annual Load Factors By Generating Station 5 Table 2: Generic Annual Load Factors For The 2018/19 Charging Year 10 Changes to the Draft ALFs 11 The Onshore Wind Generic ALF has changed 11 Edinbane 11 Pen Y Cymoedd 11 Inactive Generators 12 How Are ALFs Calculated? 13 Five Years Of Data 13 Four Years Of Data 14 Three Years Of Data 14 Fewer Than Three Years Of Data 14 Calculation Of Partial Year ALFs 15 Generic ALFs 15 Next Steps 15 Appendix A: Generation Charging Principles 16 CMP268 16 The TNUoS Wider Tariff 16 Other Charges 17 Contact Us If you have any comments or questions on the contents or format of this report, please don’t hesitate to get in touch with us. Team Email & Phone [email protected] 01926 654633 NGET: Final ALFs for 2018/19 TNUoS Tariffs October 2017 3 Executive Summary This document contains the Final Annual Load Factors (ALFs) to be used in the calculation of generator Transmission Network Use of System (TNUoS) tariffs for 2018/19, effective from 1 April 2018. The ALFs are based on generation data for five years from 2012/13 until 2016/17. -
Future Potential for Offshore Wind in Wales Prepared for the Welsh Government
Future Potential for Offshore Wind in Wales Prepared for the Welsh Government December 2018 Acknowledgments The Carbon Trust wrote this report based on an impartial analysis of primary and secondary sources, including expert interviews. The Carbon Trust would like to thank everyone that has contributed their time and expertise during the preparation and completion of this report. Special thanks goes to: Black & Veatch Crown Estate Scotland Hartley Anderson Innogy Renewables MHI-Vestas Offshore Wind Milford Haven Port Authority National Grid Natural Resources Wales Ørsted Wind Power Port of Mostyn Prysmian PowerLink The Crown Estate Welsh Government Cover page image credits: Innogy Renewables (Gwynt-y-Môr Offshore Wind Farm). | 1 The Carbon Trust is an independent, expert partner that works with public and private section organizations around the world, helping them to accelerate the move to a sustainable, low carbon economy. We advise corporates and governments on carbon emissions reduction, improving resource efficiency, and technology innovation. We have world-leading experience in the development of low carbon energy markets, including offshore wind. The Carbon Trust has been at the forefront of the offshore wind industry globally for the past decade, working closely with governments, developers, suppliers, and innovators to reduce the cost of offshore wind energy through informing policy, supporting business decision-making, and commercialising innovative technology. Authors: Rhodri James Manager [email protected] -
Working at Heights
COMMUNICATION HUB FOR THE WIND ENERGY INDUSTRY SPECIALIST SURVEYING WORKING AT HEIGHTS LAW SPOTLIGHT ON TYNE & TEES APRIL/MAY 2013 | £5.25 INTRODUCTION ‘SPOTLIGHT’ ON THE TYNE & THE TEES CONTINUING OUR SUCCESSFUL REGULAR FEATURES company/organisation micropage held ‘Spotlight On’ featureS WE We can boast no fewer than 9 separate within our website, so that you can learn AGAIN VISIT THE TYNE & TEES features within this edition. Some much more in all sorts of formats. AS ‘an area of excellence are planned and can be found in our IN THE WIND ENERGY INDUSTRY ‘Forthcoming Features’ tab on our These have already become very popular THROUGHOUT EUROPE AND website – we do however react to editorial as it links the printed magazine in a very beyond’ received, which we believe is important interactive way – a great marketing tool to the industry and create new features to for our decision making readership to The area is becoming more and more suit. find out about products and services important to the wind energy industry. immediately following the reading of an As you will see the depth and breadth Therefore please do not hesitate to let us interesting article. Contact the commercial of the companies and organisations know about any subject area which you department to find out how to get one for who have contributed to this feature do feel is important to the continued progress your company. not disappoint. of the industry and we will endeavour to bring it to the fore. The feature boasts the largest page Click to view more info count so far which stretches over 40 WIND ENERGY INDUSTRY SKILLS GAP pages! – initiative update = Click to view video I year ago we reported that there were 4 COLLABORATION AND THE VESSEL main areas to focus on if we are to satisfy CO-OPERATIVE that need and would include a focused Our industry lead article in this edition approach in the following areas. -
Who Is Forewind?
Who is Forewind? Forewind is a joint venture consortium comprising four leading international energy companies which have joined forces to bid for Zone Development Agreements as part of The Crown Estate’s third licence round for UK offshore wind farms (Round 3). The four partners are: Scottish and Southern Statoil - a world leading Statkraft - Europe’s RWE npower renewables Energy Plc, one of the offshore oil and gas largest generator of the UK subsidiary of largest energy companies operator renewable energy Pan-European renewable in the UK. energy company RWE Innogy Each of the Forewind partners has a demonstrable long-term strategy and commitment to large-scale renewable energy generation, in particular offshore wind. Round 3 offshore wind Most of The Crown Estate Round 3 Zones are many times larger than any previous wind farm development area anywhere in the world. The zones will require developers with significant resources. Successful bidders for the nine zones will be given exclusive rights to develop wind farms under the terms of a Zone Development Agreement. These development zones will have the potential for the construction of multiple wind farm sites. The realisation of the UK Government’s target of 25GW of offshore wind by 2020 is also heavily dependent on developing solutions to a number of issues such as cumulative impact, grid, consenting processes and supply chain. “ The Crown Estate’s Round 3 offshore wind programme has ambitious targets which will only be achievable with the support and input of strong companies committed to the future of the UK wind industry such as the four partners comprising the Forewind consortium.” Maria McCaffery, CEO, BWEA www.forewind.co.uk | [email protected] Why form a consortium The extraordinary challenges facing Round 3 developers require extraordinary resources and innovative thinking. -
7.3 Strategic Options Report
The North Wales Wind Farms Connection Project Strategic Options Report Application reference: EN020014 March 2015 Regulation reference: The Infrastructure Planning (Applications: Prescribed Forms and Procedure) Regulations 2009 Regulation 5(2)(q) Document reference 7.3 The Planning Act 2008 The Infrastructure Planning (Applications: Prescribed Forms and Procedure) Regulations 2009 Regulation 5(2)(q) The North Wales Wind Farms Connection Project Strategic Options Report Document Reference No. 7.3 Regulation No. Regulation 5(2)(q) Author SP Manweb Date March 2015 Version V1 Planning Inspectorate Reference EN020014 No. SP Manweb plc, Registered Office: 3 Prenton Way Prenton CH43 3ET. Registered in England No. 02366937 SUMMARY The North Wales Wind Farms Connection Project is a major electrical infrastructure development project, involving several wind farm developers and the local Distribution Network Operator – SP Manweb plc (SP Manweb). The development of on-shore wind generation in Wales is guided by the Welsh Government’s energy strategy, initially published in 2003. In their Technical Advice Note (TAN) 8: renewable energy (2005) the Welsh Government identified 7 Strategic Search Areas (SSAs) as potential locations for wind generation, of which area A is in North Wales. During the past 20 years, approximately 220 MW of wind generation (both onshore and offshore) have been connected to the SP Manweb distribution network in North Wales. Within the TAN 8 SSA A, SP Manweb is currently contracted to connect a further four wind farms[1] which have received planning consent and total 170 MW of generation. SP Manweb has a statutory duty to offer terms to connect new generating stations to its distribution system. -
10Th July 2000
News Release 14 March 2012 Siemens awards multi-million tower contract to South Wales firm Fifteen towers destined for Mynydd y Betws wind farm project as Mabey Bridge is awarded first contract by the UK’s largest provider of wind turbines Siemens, the leading global engineering and technology company, has announced that it has placed an order with South Wales based Mabey Bridge to manufacture towers for 15, 2.3MW turbines bound for the Mynydd y Betws wind farm in Carmarthenshire. Siemens will supply, transport, install and commission the two-section 63-metre- high, 105 tonne towers for local developer, Cambrian Renewable Energy Limited (CREL), owned by the ESB, Ireland’s main electricity utility company. The wind turbines will have a tip height of 110 metres, and an installed capacity of up to 34.5MW. The project will generate electricity to power approximately 18,250 households, equivalent to almost a quarter of Carmarthenshire. More than two million tonnes of carbon dioxide emissions will be saved over the lifetime of the project. The towers will be delivered in summer 2012 and the project is due for completion by February 2013. Originally developed by CREL, a Welsh consortium of Eco2 and local investors, Mynydd y Betws Wind Farm was acquired in June 2010 by ESB. ESB is committed to halving its carbon emissions by 2020 and achieving carbon net-zero emissions Page 1 of 3 by 2035. In addition to Mynydd y Betws, other projects include the Fullabrook Wind Farm in Devon and the West Durham Wind Farm. Commenting on the Mynydd y Betws Wind Farm project a spokesperson from ESB said: "ESB is committed to realising benefits for local communities by developing new green energy sources. -
Vattenfall Wind Power Ltd Thanet
Vattenfall Wind Power Ltd Thanet Extension Offshore Wind Farm Appendix 31 to Deadline 1 Submission: Written Summary of Oral Case put at the Issue Specific Hearing 2 – Shipping & Navigation Relevant Examination Deadline: 1 Submitted by Vattenfall Wind Power Ltd Date: January 2019 Revision A Written Summary of Oral Case put at the Issue Thanet Extension Offshore Wind Farm Specific Hearing 2 Drafted By: Vattenfall Wind Power Ltd Approved By: Daniel Bates Date of Approval: January 2019 Revision: A Revision 0 Circulated to agreed attendees Revision A First draft submitted to the Examining Authority N/A N/A Copyright © 2019 Vattenfall Wind Power Ltd All pre-existing rights retained Page 2 / 40 Written Summary of Oral Case put at the Issue Thanet Extension Offshore Wind Farm Specific Hearing 2 Contents 1 Introduction ....................................................................................................................... 4 Participants .................................................................................................................. 4 Agenda......................................................................................................................... 4 2 Issue Specific Hearing 1 – Agenda Item 7. Shipping, Navigation and Marine Safety Relating to French Waters ......................................................................................................... 5 3 Issue Specific Hearing 1 - Agenda Item 8. Shipping, Navigation and Marine Safety Relating to the Waters of other Countries ............................................................................... -
Structural Integrity of Offshore Wind Turbines
TRANSPORTATION RESEARCH BOARD Structural Integrity of Offshore Wind Turbines SPECIAL Oversight of Design, Fabrication, and Installation REPORT 305 Special Report 305 Special Report The United States is poised to begin building its first offshore wind energy power projects. To facilitate the orderly development of offshore wind energy and support the stable economic development of this nascent industry, the United States needs Structural Integrity a set of clear requirements that can accommodate design development. In this study, sponsored by the U.S. Department of the Interior’s Bureau of Ocean Energy Management, Regulation, and Enforcement (BOEMRE), the committee recom- of Offshore mends that BOEMRE develop a set of performance requirements that establish goals and objectives with regard to structural integrity, environmental performance, and energy generation. Because the committee found that the risks to human life and the Structural Integrity of Offshore Wind Turbines Wind Turbines environment associated with offshore wind farms are substantially lower than for other industries such as offshore oil and gas, it suggests that an approach with significantly less regulatory oversight may be taken for offshore wind farms. Under this approach, indus- Oversight of Design, try would be responsible for proposing sets of standards, guidelines, and recommended Fabrication, and Installation practices that meet the performance requirements established by BOEMRE. Also of Interest Electricity from Renewable Resources: Status, Prospects, and Impediments -
GB Wholesale Market Summary April 2021
GB Wholesale Market Summary April 2021 Published May 2021 Aurora offers power market forecasts and market intelligence spanning Europe’s key markets, Australia and the US Comprehensive Power Power Market Bespoke Market Services Forecast Reports forecasts Market forecast Power market Aurora can provide ✓ reports ✓ forecast reports ✓ power market forecasts upon Forecast data in Forecast data in request ✓ Excel ✓ Excel Global energy ✓ Analyst support ✓ market forecast reports Strategic insight ✓ reports Regular subscriber ✓ group meetings ✓ Policy updates ✓ Bilateral workshops ✓ Analyst support Source: Aurora Energy Research 2 Month-on-month Year-on-year Monthly value1 Slide reference(s) E x e c u t i v e change change Power prices + 12.4 + 43.5 66.6 5, 6 £/MWh (23.0%) (188.9%) S u m m a r y Gas prices + 3.1 + 13.8 18.5 7 £/MWh (20.3%) (291.4%) Carbon2 prices + 3.4 + 21.0 56.5 7 ▪ April saw power prices rise to £67/MWh £/tCO2 (6.4%) (58.9%) driven by increased gas and carbon Transmission demand - 2.1 + 3.4 prices 20.8 10 TWh (9.2%) (19.3%) ▪ Monthly transmission power demand in Low carbon3 generation - 1.0 - 0.9 April decreased to 21 TWh due to 10.8 11, 12 warmer temperatures TWh (8.5%) (7.6%) Thermal4 generation + 1.1 + 5.14 ▪ Despite lower demand and higher gas 10.4 11, 12 and carbon prices, thermal generation in TWh (11.8%) (97.7%) April increased to 11 TWh due to lower Carbon emissions + 0.3 + 2.1 renewables output 4.5 14 MtCO2e (7.9%) (85.7%) ▪ Higher thermal generation thus resulted Grid carbon intensity + 33.9 + 84.5 239.9 14 in a rise in emissions to 5 MtCO2e gCO2e/kWh (16.5%) (54.4%) Wind load factors5 24.0 - 16 p.p. -
Probabilistic Modelling Techniques and a Robust Design Methodology for Offshore Wind Farms
PROBABILISTIC MODELLING TECHNIQUES AND A ROBUST DESIGN METHODOLOGY FOR OFFSHORE WIND FARMS A thesis submitted to the University of Manchester for the degree of PhD in the Faculty of Engineering and Physical Sciences 2012 Muhammad Ali Electrical Energy and Power Systems Group School of Electrical and Electronic Engineering 2 Table of Contents List of Tables ............................................................................................................................ 8 List of Figures .......................................................................................................................... 9 List of Symbols and Abbreviations ................................................................................. 14 Abstract ............................................................................................................................. 24 Declaration ............................................................................................................................. 25 Copyright Statement ........................................................................................................... 26 Acknowledgement ................................................................................................................ 28 Chapter 1 Introduction ..................................................................................................... 29 1.1 The Need for Improved Modelling and Design ................................................. 32 1.2 Overview of Wind Power Generation ...............................................................