State of the Offshore Wind Industry in Northern Europe Lessons Learnt in the First Decade
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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 -
High-Resolution CFD Modelling of Lillgrund Wind Farm
International Conference on Renewable Energies and Power Quality (ICREPQ’13) Bilbao (Spain), 20th to 22th March, 2013 Renewable Energy and Power Quality Journal (RE&PQJ) ISSN 2172-038 X, No.11, March 2013 High-resolution CFD modelling of Lillgrund Wind farm A.C.W. Creech1, W.-G. Früh2 and A.E. Maguire3 1 Institute of Energy Systems, School of Engineering, University of Edinburgh Kings Buildings, Edinburgh EH9 3JL (UK) E-mail: [email protected] 2 Institute of Mechanical, Process and Energy Engineering, School of Physical Sciences and Engineering, Heriot-Watt University, Riccarton, Edinburgh EH14 4AS (UK) E-mail: [email protected] 3 Vattenfall United Kingdom, Research & Development New Renewables The Tun, Holyrood Road, Edinburgh EH8 8AE (UK) E-mail: [email protected] Abstract. We report on a fully dynamic simulation of key factor affecting the performance is that turbines in Vattenfall’s Lillgrund offshore Wind Farm, with a focus the array may be in the wakes of upstream turbines where on the wake effects of turbines on the performance of they experience substantially lower wind speeds than the individual turbines, and of the farm as a whole. upstream turbines [1]. Common approaches are Reynolds-Averaged Navier-Stokes (RANS) CFD or simpler flow modelling coupled with linear wake theory, The model uses a dynamic representation of a wind turbine such as Jensen’s Park model. However, it is recognised to simulate interaction between the wind and the turbine that the simple wake models lose accuracy when applied rotors, calculating the instantaneous power output and to multiple wakes interacting. -
Lillgrund Wind Power Offshore
LILLGRUND WIND POWER OFFSHORE 110 MW UNDER CONSTRUCTION IN SOUTHERN SWEDEN. Jeju, Korea, April 20, 2007 Kenneth Averstad, Vattenfall AB Wind Power, Sweden © Vattenfall AB 1 Agenda • Short presentation of my company Vattenfall AB and our wind power development activities. • Lillgrund Wind Power Offshore Project 110 MW. • Other Offshore Wind Projects under Development in Sweden. © Vattenfall AB Vattenfall AB's Electricity Generation About 160 TWh / year Finland 0,5 TWh Sweden 80 TWh 7 TWh Denmark 68 TWh 2,3 TWh Germany Poland © Vattenfall AB Vattenfall Nordic Wind Power 2007: 487 MW ; 1200 GWh/yr Denmark 406 WT, 309 MW, Sweden 62 WT, 750 GWh 54 MW, 120 GWh Finland 10 WT, 4 MW, 8 GWh England 30 WT, Poland 15 WT, 90 MW, 270 GWh 30 MW, 60 GWh Own and operate total: 523 wind turbines = Offices © Vattenfall AB Vattenfall’s Offshore Wind Power in Operation 2007 Horns Rev (60%), 360 GWh Utgrunden 1 + + Yttre Stengrund, Kentish Flats, 60 GWh 270 GWh Map from Vattenfall’s Corporate Social Responsibility Report (www.vattenfall.com) © Vattenfall AB Näsudden = Vattenfall’s O&M and Test Centre - since 1982 and prototype testing, for example: Nordic Windpower 2, 1000 kW Nordic Windpower 1, 1000 kW Näsudden 2, 3000 kW Located on the island Gotland in the Baltic Sea. © Vattenfall AB Näsudden 2, 3000 kW Gotland, Sweden 61.4 GWh WORLD RECORD Finally stopped January 9, 2007 at 02:29, after 61,469 generating hours since start March 14, 1993. Vibration alarms, low oil pressure in gear- box. Inspection showed severe damages in gearbox, many teeth in different gear- box steps have been damaged. -
IEA Wind Technology Collaboration Programme
IEA Wind Technology Collaboration Programme 2017 Annual Report A MESSAGE FROM THE CHAIR Wind energy continued its strong forward momentum during the past term, with many countries setting records in cost reduction, deployment, and grid integration. In 2017, new records were set for hourly, daily, and annual wind–generated electricity, as well as share of energy from wind. For example, Portugal covered 110% of national consumption with wind-generated electricity during three hours while China’s wind energy production increased 26% to 305.7 TWh. In Denmark, wind achieved a 43% share of the energy mix—the largest share of any IEA Wind TCP member countries. From 2010-2017, land-based wind energy auction prices dropped an average of 25%, and levelized cost of energy (LCOE) fell by 21%. In fact, the average, globally-weighted LCOE for land-based wind was 60 USD/ MWh in 2017, second only to hydropower among renewable generation sources. As a result, new countries are adopting wind energy. Offshore wind energy costs have also significantly decreased during the last few years. In Germany and the Netherlands, offshore bids were awarded at a zero premium, while a Contract for Differences auction round in the United Kingdom included two offshore wind farms with record strike prices as low as 76 USD/MWh. On top of the previous achievements, repowering and life extension of wind farms are creating new opportunities in mature markets. However, other challenges still need to be addressed. Wind energy continues to suffer from long permitting procedures, which may hinder deployment in many countries. The rate of wind energy deployment is also uncertain after 2020 due to lack of policies; for example, only eight out of the 28 EU member states have wind power policies in place beyond 2020. -
THE ACTORS of a WIND POWER CLUSTER: a CASE of a WIND POWER CAPITAL Journal of Urban and Environmental Engineering, Vol
Journal of Urban and Environmental Engineering E-ISSN: 1982-3932 [email protected] Universidade Federal da Paraíba Brasil M. Sarja, Jari THE ACTORS OF A WIND POWER CLUSTER: A CASE OF A WIND POWER CAPITAL Journal of Urban and Environmental Engineering, vol. 7, núm. 1, -, 2013, pp. 143-150 Universidade Federal da Paraíba Paraíba, Brasil Available in: http://www.redalyc.org/articulo.oa?id=283227995015 How to cite Complete issue Scientific Information System More information about this article Network of Scientific Journals from Latin America, the Caribbean, Spain and Portugal Journal's homepage in redalyc.org Non-profit academic project, developed under the open access initiative Sarja 143 Journal of Urban and Environmental Journal of Urban and E Engineering, v.7, n.1, p.143-150 Environmental Engineering ISSN 1982-3932 J www.journal-uee.org E doi: 10.4090/juee.2013.v7n1.143150 U THE ACTORS OF A WIND POWER CLUSTER: A CASE OF A WIND POWER CAPITAL Jari M. Sarja1 1Raahe Unit, University of Oulu, Finland Received 5 July 2012; received in revised form 27 March 2013; accepted 28 March 2013 Abstract: Raahe is a medium-sized Finnish town on the western coast of Northern Finland. It has declared itself to become the wind power capital of Finland. The aim of this paper is to find out what being a wind power capital can mean in practice and how it can advance the local industrial business. First, the theoretical framework of this systematic review study was formed by searching theoretical information about the forms of industrial clusters, and it was then examined what kinds of actors take part in these types of clusters. -
Comparative Study of Wind Turbine Placement Methods for Flat Wind Farm Layout Optimization with Irregular Boundary
applied sciences Article Comparative Study of Wind Turbine Placement Methods for Flat Wind Farm Layout Optimization with Irregular Boundary Longyan Wang 1,2,3 1 Research Center of Fluid Machinery Engineering and Technology, Jiangsu University, Zhenjiang 212013, China; [email protected] 2 School of Chemistry, Physics and Mechanical Engineering, Queensland University of Technology, Brisbane 4001, Australia 3 Department of Mechanical Engineering, University of Alberta, Edmonton, AB T6G 2R3, Canada Received: 18 December 2018; Accepted: 11 February 2019; Published: 14 February 2019 Featured Application: The comparative results of the effectiveness of different wind turbine placement methods will facilitate the application of a more advantageous method to be used for the wind farm design, and hence improve the cost effectiveness of wind power exploitation. Abstract: For the exploitation of wind energy, planning/designing a wind farm plays a crucial role in the development of wind farm project, which must be implemented at an early stage, and has a vast influence on the stages of operation and control for wind farm development. As a step of the wind farm planning/designing, optimizing the wind turbine placements is an effective tool in increasing the power production of a wind farm leading to an increased financial return. In this paper, the optimization of an offshore wind farm with an irregular boundary is carried out to investigate the effectiveness of grid and coordinate wind farm design methods. In the study of the grid method, the effect of grid density on the layout optimization results is explored with 20 × 30 and 40 × 60 grid cells, and the means of coping with the irregular wind farm boundary using different wind farm design methods are developed in this paper. -
Offshore Wind Turbine Installation Analyses
= Offshore Wind Turbine Transportation & Installation Analyses Planning Optimal Marine Operations for Offshore Wind Projects EMRE URAZ Master Thesis Visby, Sweden 2011 Offshore Wind Turbine Transportation & Installation Analyses Planning Optimal Marine Operations for Offshore Wind Projects Master Thesis by Emre URAZ Master Thesis written at Gotland University, June 2011, Department of Wind Energy Supervisor: Richard Koehler HGO, Department of Wind Energy Examiner: Dr. Bahri Uzunoğlu HGO, Department of Wind Energy Abstract Transportation and installation of offshore wind turbines (Tower, Nacelle and Rotor) is a complete process conducted over several phases, usually in sequence. There are several factors that can turn this process into a challenge. These factors can either be due to offshore site conditions or the technical limitations of the installation vessels. Each project has its own characteristic parameters and requires a unique optimum solution. This paper identifies the dynamics of the installation process and analyzes the effects of each phase on the progression of events. The challenges in wind turbine installations due to offshore environment were investigated, the effects of each were explained and their significances were stressed. Special installation vessels were examined and their technical specifications were analyzed in terms of working conditions, dimensions, service performances, and crane capacities as well as projecting future design trends. Several offshore wind farm projects were analyzed; their installation methods were specified, and compared to each other to determine advantages and disadvantages of different pre-assembly concepts. The durations of the sub-phases of the process were defined in terms of different variables such as site conditions and individual vessel performance. These definitions were used for making time estimations, and conducting further analyses regarding the effects of different site specific parameters on the overall project duration. -
Offshore Wind Power Projects
Offshore wind power projects Answers for energy. Offshore projects 1 Walney, UK, 2010–2011 10 Horns Rev II, DK, 2009 102 turbines 1) 91 turbines 1) 2 Burbo Banks, UK, 2007 11 Samsø, DK, 2000 25 turbines 10 turbines 3 Rhyl Flats, UK, 2009–2010 12 Middelgrunden, DK, 2000 25 turbines 1) 20 turbines 4 Lynn / Inner Dowsing, UK, 2008 13 Vindeby, DK, 1991 54 turbines 11 turbines 5 Sheringham Shoal, UK, 2011 14 Rødsand II, DK, 2010 88 turbines 1) 90 turbines 1) 6 Greater Gabbard, UK, 15 Lillgrund, SE, 2007 2010–2011, 140 turbines 1) 48 turbines 7 Gunfleet Sands, UK, 2009 16 Baltic I, DE, 2010 48 turbines 1) 21 turbines 1) 8 London Array, UK, 2012 17 Nysted/Rødstand, DK, 2003 175 turbines 1) 72 turbines 9 Hywind, NO, 2009 1) 1 turbine 1) Planned When it comes to offshore wind power, Siemens has not only supplied the world’s no supplier can match Siemens in first, but also the world’s largest offshore experience and stability. Siemens has projects. The 165-MW Nysted offshore a proven and unique offshore track wind farm has held the record as the record, ranging from the world’s first largest offshore project for several years offshore wind farm almost 20 yeas ago now. This record is expected to be broken to today’s largest offshore projects. All when the 200-MW Horns Rev II project projects have been delivered on time is commissioned. The 500-MW Greater and on budget, and have recorded Gabbard project, currently in progress in high availability. -
PRE-FEASIBILITY STUDY for OFFSHORE WIND FARM DEVELOPMENT in GUJARAT the European Union Is a Unique Economic and Political Partnership Between 28 European Countries
EUROPEAN UNION PRE-FEASIBILITY STUDY FOR OFFSHORE WIND FARM DEVELOPMENT IN GUJARAT The European Union is a unique economic and political partnership between 28 European countries. In 1957, the signature of the Treaties of Rome marked the will of the six founding countries to create a common economic space. Since then, first the Community and then the European Union has continued to enlarge and welcome new countries as members. The Union has developed into a huge single market with the euro as its common currency. What began as a purely economic union has evolved into an organisation spanning all areas, from development aid to environmental policy. Thanks to the abolition of border controls between EU countries, it is now possible for people to travel freely within most of the EU. It has also become much easier to live and work in another EU country. The five main institutions of the European Union are the European Parliament, the Council of Ministers, the European Commission, the Court of Justice and the Court of Auditors. The European Union is a major player in international cooperation and development aid. It is also the world’s largest humanitarian aid donor. The primary aim of the EU’s own development policy, agreed in November 2000, is the eradication of poverty. http://europa.eu/ PRE-FEASIBILITY STUDY FOR OFFSHORE WIND FARM DEVELOPMENT IN GUJARAT MAY 2015 THIS REPORT IS CO-FUNDED BY THE EUROPEAN UNION Table of contents FOREWORD ...............................................................................................................................6 -
A Change of Mood
FRANCE WIND ENERGY More than agriculture and tourism: in French Burgundy many new jobs are to be created through the expansion of the wind power industry. Photo: pitopia A change of mood In the French Burgundy region no new industrial centres had been set up for a long time. Now that the wind power sector has moved in and set up a supplier cluster, however, things are now looking up again in the region. or many years, looking for wind power projects cy “Bourgogne Développement”. And expansion would have been fruitless. But in 2009 the first could accelerate rapidly in the coming months, for Fwind farm was put up near the regional capital planning approval has already been given for a fur- Dijon. It consists of 25 Vestas V90 turbines totalling ther 199 turbines with a total capacity of 416.6 MW. 50 MW and was a project run by Eole-RES of Avignon. The region in the heart of Eastern France has a And now, more projects are being implemented, with wind power potential which shouldn’t be underesti- the construction of the first wind farm in the Burgundy mated; by 2015, estimates Schuddinck, 717 MW of département of Yonne starting in November 2010, for wind power capacity could be installed in the four example. départements Côte-d’Or, Nièvre, Saône-et-Loire and “There are currently 35 wind turbines in opera- Yonne. The economic promoter points to the results tion in our region, with a total capacity of 70 MW,” re- of a wind atlas which the Burgundy region had ports Emmanuel Schuddinck, who is mainly respon- drawn up in 2005. -
The Case of the Wind Power Cluster in Jeonbuk Province
Emerging Green Clusters in South Korea? The Case of the Wind Power Cluster in Jeonbuk Province Su-Hyun Berg*, Robert Hassink** Abstract Regional innovation systems and clusters represent a fashionable conceptual basis for regional innovation policies in many industrialized countries (including South Korea). Due to questions related to climate change and environment-friendly energy production, the green industry has been increasingly discussed in relation to regional innovation systems and clusters. This explorative paper analyzes these discussions and criti- cally examines the emergence of green clusters in South Korea based on the case of the wind power cluster in Jeonbuk Province. It tentatively concludes that the role of the central government is too powerful and the role of regional actors (policy-makers and entrepreneurs) is too weak for the successful emergence of green clusters. KEYWORDS: emerging green clusters, wind energy industry, regional innovation system, Jeonbuk Province, South Korea 1. INTRODUCTION Regional innovation systems and clusters have been popular among policy-makers in industrialized countries in North America, Europe, and East Asia in order to boost regional economic develop- ment (OECD 2007, 2011; Fritsch and Stephan 2005). Recent interest has focused on emerging clus- ters (Fornahl et al. 2010) and the interrelationship with regional innovation systems. There has been increased interest in the emergence of green clusters and eco-innovation systems due to climate change and other environmental issues (see Cooke 2009, 2010a, 2010b, 2011; Truffer & Coenen 2012; Fornahl et al. 2012). These trends can be observed in South Korea; however, regional innova- * PhD candidate, University of Kiel, Germany, [email protected] **Professor, University of Kiel, Germany, [email protected] 63 STI Policy Review_Vol. -
Master's Thesis Template Word
The challenges in installation of offshore wind farms A case of Lillgrund and Anholt wind farms Master’s thesis in Design and Construction Project Management ISSA IBRAHIM HABAKURAMA JOSEPH BALUKU Department of Civil and Environmental Engineering CHALMERS UNIVERSITY OF TECHNOLOGY Gothenburg, Sweden 2016 MASTER’S THESIS BOMX02-16-104 The challenges in installation of offshore wind farms A case of Lillgrund and Anholt wind farms Master’s Thesis in the Master’s Programme Design and Construction Project Management ISSA IBRAHIM HABAKURAMA JOSEPH BALUKU Department of Civil and Environmental Engineering Division of Construction Management Construction Management CHALMERS UNIVERSITY OF TECHNOLOGY Göteborg, Sweden 2016 The challenges in installation of offshore wind farms A case of Lillgrund and Anholt wind farms Master’s Thesis in the Master’s Programme Design and Construction Project Management ISSA IBRAHIM HABAKURAMA JOSEPH BALUKU © ISSA IBRAHIM HABAKURAMA, JOSEPH BALUKU 2016 Examensarbete BOMX02-16-104 / Institutionen för bygg- och miljöteknik, Chalmers tekniska högskola 2016 Department of Civil and Environmental Engineering Division of Construction Management Construction Management Chalmers University of Technology SE-412 96 Göteborg Sweden Telephone: + 46 (0)31-772 1000 Department of Civil and Environmental Engineering Göteborg, Sweden, 2016 I The challenges in installation of offshore wind farms A case of Lillgrund and Anholt wind farms Master’s thesis in the Master’s Programme Design and Construction Project Management ISSA IBRAHIM HABAKURAMA JOSEPH BALUKU Department of Civil and Environmental Engineering Division of Construction Management Construction Management Chalmers University of Technology ABSTRACT Wind energy is one of the rapidly growing sources of energy due low emissions resulting from its use.