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2012 №03 (05) 2012 №03 (07)

The Paton Welding Journal 2012 #03
The Paton Welding Journal, 2012, #3, 26-30 pages  

APPLICATION OF WELDING TECHNOLOGIES AT REALIZATION OF EUROPEAN PROGRAM ON NEW RENEWABLE ENERGY SOURCES

A. KLIMPEL


Silesian Polytechnical Institute, Gliwice, Poland
 
 
Abstract
Analysis of the strategy of EuroUnion outlined in the European Strategic Energy Technology Plan (SET-Plan) was performed. Design of high-power wind generators for application on land and at sea is described, as well as modern structural materials and design solutions of towers, blades and load-carrying structures of nacelles. Directions of investigation of modern welding technologies to be applied in manufacture of up to 20 MW wind generators are proposed.
 
 
Keywords: welded structures, renewable energy, wind generators, European plan, new structural materials, new welding technologies, installation work
 
 
Received:                10.01.12
Published:               28.03.12
 
 
References
1. (2010) Global gaps in clean energy R&D: Update and recommendations for international collaboration. In: IEA Report for the Clean Energy Ministerial.
2. Fichaux, N. Delivering today the energy of tomorrow. http://www.windplatform.eu/fi-leadmin/ewetp_docs/Ev ents/Europ ean_Wind_Initiati-ve_JP.pdf
3. (2010) Energy. In: Ann. report 2010 on public grants from energy research programmes ForskEL, EDDP/ERP, ELforsk, DSCR energy and environment and energy projects of the Danish National Advanced Technology Foundation.
4. Beurskens, J. Developing offshore wind energy now and in the future. http://www.we-at-sea.org/leden/docs/conference2010/l.pdf
5. (2009) TPWind: The way forward. In: 6th Frame Work Programme, March.
6. Profile of the Danish wind industry. http://www.e-pages. dk/windpower/21/
7. RenewableUK (BWEA). http://www.bwea.com/pdf/ publicat ions/CapReport.pdf
8. Doing business with wind turbine manufacturers. http:// www.bvgassociates.co.uk/LinkClick.aspx?fileticket=YcePA-zeHDQc%3D&tabi- d=101
9. American wind power surmounted challenges in 2010. http:// www.awea.org/rn_release_0 1-06-l l.cfm
10. AWEA 3rd Quarter 2010 Market Report. http://www. awea.org/documents/r eports/2010_third_quar-ter_report. pdf
11. Winds of change. A manufacturing blueprint for the wind industry. http://www.awea.org/ la_pubs_reports.cfm
12. (2010) WindVision 2025. A strategy for Quebec. Canadian Wind Energy Ass.
13. VESTAS V 112 3.0 MW offshore. pdf.www.vestas.com
14. ENERCON wind energy converters. Products overview. pdf. www.enercon.de
15. GAMESA G128-4,5 MW. pdf.www.gamesacorp.com
16. SIEMENS wind turbine. New dimensions. pdf.www.siemenswindpower.com
17. Repower system. The 5 MW megawatt power plant with 126 meter rotor diameter: Technical data. pdf. www.repo wer.com
18. GE power & water. pdf. www.gewindenergy.com
19. Ruukki wind towers. Reaching the heights with Ruukki. Ruukki- Engineering-Wind-tower-reaching-the-heights.pdf
20. Acona, D., Weigh, J. (2011) Wind turbine materials and manufacturing fact sheet. US Dep. of Energy, 1-8.
21. Aldeman, M. Building the wind turbine supply chain: The next steps workshop. http://renewableenergy.illinois-state. edu/wind/conferences/
22. Gudmestad, О.T., Sarkar, A. (2010) Offshore deployment and marine operation for offshore wind turbines. In: NORCOWE WP3 Meeting Proc. (7 June 2010).
23. Fischer, T., Kuhn, M. (2010) Importance and mitigation of loading on offshore wind turbines on monopole support structures in cases of non-availability. In: Proc. of 20th Int. Offshore and Polar Energy Conf. (Beijing, 20-25 June 2010), 644.
24. Chou, J.-S., Tu, W.-T. (2011) Failure analysis and risk management of a collapsed large wind turbine tower. Eng. Failure Analysis, 18, 295-313.
25. Innovative composite hub for wind turbines. http://cordis.europa.eu/data/PROJ _FP5/ACTIONeq DndSESSIONeqll2362005919nd DOCeql021ndTBLeq EN_PROJ.htm
26. (2010) RAPORT. In: Energetyka wiatrowa w Polsce, Nov.
27. 166 Sprawozdafi projektow wykonanych w ramach funduszy badawczych Unii Europejskiej Е programu WIND ENERGY. http://cordis.europa.eu/
28. (2010) RFSR-CT-2006-00031: High-strength steel tower for wind turbine: Final report.
29. Paschold, R., Dirksen, D. (2005) Submerged arc welding of steels for offshore wind towers. Svetsaren, 60(1), 13-17.
30. Torstensson, B., Ivarson, P. (2005) ESAB welding solutions for windmill tower production. Processes and equipment for increased productivity. Ibid., 60(2), 14-19.
31. Efficient welding in the wind tower manufacturing industry. In: ESAB Brochure XA00126920.
32. Man, E., Lafleur, W. (2008) SIF Group at the foundation of Dutch wind energy. Svetsaren, 63(1), 18-22.
33. Sharpe, M. (2009) Robotic fabrication of wind turbine power generators. Welding J., 88(8), 40-44.
34. (2009) Wind turbine welding system uses linear motion modules. Ibid., 88(8), 50-51.
35. Wind energy. An Oerlikon market solution. In: Brochure Air. Liquid. Welding.
36. (2009) RFSR-CT-2005-00042. Fatigue behavior of high strength steels welded joints in offshore and marine systems: Final report.
37. (2009) RFSR-CT-2006-00029. Improvement in steel utilization and manufacturing by recent break-through in high-power fibre laser welding: Final report.
38. Thorny, C., Sepold, G., Seefeld, T. et al. (2002) Industrial implementation of laser/GMA welding and mechanical properties of the welds. In: Proc. of Supermartensitic Stainless Steels Conf. Brussels: KCI, 147-155.
39. Sepold, G., Thorny, C., Seefeld, T. et al. (2003) CO2-laser GMA hybrid welding Е Aspects of research and industrial application. In: Proc. of Lasers in Manufacturing Conf. Stuttgart: AT-Fachverlag, 149-156.
40. Staufer, H. (2004) Laser hybrid welding of ships. Welding J., 83(3), 39-43.
41. Thorny, C., Seefeld, Т., Vollertsen, F. (2005) Application of high-power fibre lasers in laser and laser-MIG welding of steel and aluminium. In: Proc. of IIW Ann. Assembly Conf. (Prague, 10-16 July 2005), 88---98.
42. Staufer, H., Graf, Т. (2003) Laser hybrid welding drives VW improvements. Welding J., 82(1), 42-48.
43. Reutzel, E.W. et al. (2006) Joining pipe with hybrid laser-GMAW process: Weld test results and cost analysis. Ibid., 85(6), 66-71.
44. Staufer, H. (2006) Laser hybrid welding and laser brazing at Audi and VW. Welding in the World, 50(7/8).
45. Ozden, H. (2007) Investigating fiber lasers for shipbuilding and marine construction. Welding J., 86(5), 26-29.
46. Staufer, H. (2007) Laser hybrid welding in the automotive industry. Ibid., 86(10), 36-40.
47. Defalco, J. (2007) Practical applications for hybrid laser welding. Ibid., 86(10), 47-51.
48. Stridh, L.-E. (2007) Welding of 13 % Cr-steels using the laser-hybrid process. Svetsaren, 62(1), 34-36.
49. Ohlsen, F. (2009) Hybrid laser arc welding. Cambridge: Woodhead.
50. Li, C., Muneharua, K., Takao, S. et al. (2009) Fiber laser-GMA hybrid welding of commercially pure titanium. Materials and Design, 30, 109-114.
51. Kelly, S.M. et al. (2009) Using hybrid laser arc welding to reduce distortion in ship panels. Welding J., 88(3), 32-36.
52. Wind tower consumable selection guide. www.lincolnelectric.com
53. http://content.lincolnelectric.com/pdfs/products/literature/mc05114.pdf
54. http://www.bernardwelds.com/articles/article4.htm http
55. http://weldingdesign.com/process es/news/wdf_11004/
56. http://www.hobartbrothers.com/aboutus/fillermetals_high-strength_pipe/
57. Linert, T.J. et al. (2003) Friction stir welding studies on mild steel. Welding J., 82(1), 1-9.
58. Ozekcin, A. et al. (2004) A microstructural study of friction stir welded joints of carbon steels. Int. J. Offshore and Polar Eng., 14(4), 284-288.
59. Norris, I.M., Thomas, W.M., Martin, J. et al. (2007) Friction stir welding Е Process variants and recent industrial developments. In: Proc. of 10th Int. Aachen Welding Conf. on Welding and Joining, Key Technologies for the Future (Aachen, 24-25 Oct. 2007).
60. Defalco, J., Steel, R. (2009) Friction stir process now welds steel pipe. Welding J., 88(5), 44-48.
61. Santos, T.F. (2009) A friction stir welding of UNS S32205 duplex stainless steel. In: LNLS Activity Report.
62. Saeidet, T. et al. (2010) EBSD investigation of friction stir welded duplex stainless steel. World Academy of Sci., Eng. and Techn., 61, 376-379.
63. Feng, Z. et al. (2005) Friction stir spot welding of advanced high-strength steels Е A feasibility study. In: SAE Int. Report 01-1248.