Abstract
This chapter contains a discussion of the advantages and challenges of introducing superconducting generators in future wind turbines. A special focus is given to the European offshore wind turbine marked, because this is the most mature and because the European Union (EU) has decided on a 20% renewable energy share of the electricity by 2020. Thus there are already scenarios of how the offshore wind power capacity is expected to develop in EU over the next two decades and this is used as the framework for a discussion of the advancements needed to make the superconducting drive trains feasible. The text is organized in a section first outlining the EU offshore plans; a section on the different drive trains; a section on the materials used to produce and shape the magnetic field in the generators and finally a section on the superconducting, vacuum, cryostat and cooling challenges of the superconducting direct drive technology.
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References
EWEA (2010) Wind statistics. EWEA, Brussels
Zervos A, Kjaer C (2009) Pure power—wind energy targets for 2020 and 2030. European Wind Energy Association, Brussel
Abrahamsen AB et al (2010) Superconducting wind turbine generators. Supercond Sci Technol 23(034019):1–8
Gardner P et al. (2009) Wind energy—the facts. ISBN 9781844077106. Brussel: Earthscan
Poore R, Lettermaier T (2003) Alternative design study report: WindPACT advanced wind turbine drive train designs study. National Renewable Energy Laboratory. NREL/SR-500-33196
Enercon. www.enercon.com. [Online]
Wobben A (2006) Majesties in the wind. Windblatt. February
Blundell S (2003) Magnetism in condensed matter. New York: Oxford university press. ISBN 0 19 850591 5
Sagawa M et al (1984) New material for permanent magnets on a base of Nd and Fe (Invited). J Appl Phys 55(6):2083–2087
Goldwind www.goldwindglobal.com. [Online]
Siemens www.energy.siemens.com. [Online]
GE. www.gepower.com. [Online]
Switch. www.theswitch.com. [Online] The Switch
Polinder H et al (2006) Comparison of direct drive amd geared generator concepts for wind turbines. IEEE trans energy convers 21(3):725
Shrestha G, Polinder H, Ferreira JA (2009) Scaling laws for direct drive generators in wind turbines. IEMDC proceedings. p 797
Bang D et al. (2008) Comparative design of radial and transverse flux PM generators for direct-drive wind turbines. International conference on electrical machines, proceedings, vol. Paper ID 1325, p 1
Polinder H et al (2007) 10Â MW wind turbine direct-drive generator design with pitch or active speed stall control. IEMDC proceedings, p 1390
Eskildsen MR et al (1998) Intertwined symmetry of the magnetic modulation and the flux-line lattice in the superconducting state of TmNi2B2C. Nature 393:242
Maeda H, Togano K (ed) (1996) Bismuth-based high temperature superconductors. Marcel dekker, ISBN 0-8247-9690-X
Foltyn SR et al (2007) Materials science challenges for high-temperature superconducting wire. Nature Mater 6:631
Li X et al (2009) The development of second generation hts wire at american superconductor. IEEE Trans Appl Supercond 19(3):3231
Hazelton DW, Selvamanickam V (2009) SuperPower’s YBCO coated high-temperature superconducting (HTS) wire and magnet applications. Proceedings of the IEEE, vol 97, 11, p 1831
Vlad VR et al (2009) Growth of chemical solution deposited TFAYBCO/MOD(Ce, Zr)O2)/ABADYSZ/SS coated conductors. IEEE Trans Appl Supercond 19(3):3212
www.amsc.com. [Online] American Superconductor
www.superwind.dk. [Online]
Abrahamsen AB et al. (2011) Feasibility study of 5Â MW superconducting wind turbine generator. Physica C. vol. DOI: 10.1016/j.physc.2011.05.217
www.superpower.com. [Online]
Selvamanickam V et al (2010) Enhanced and uniform in-field performance in long (Gd, Y)–Ba–Cu–O tapes with zirconium doping fabricated by metal–organic chemical vapor deposition. Supercond Sci Technol 23(014014):1–6
ter Brake HJM, Wiegerinck GFM (2002) Low-power cryocooler survey. Cryogenics 42:705
SHICryogenics www.SHIcryogenics.com. [Online]
White GK, Meeson PJ (2002) Experiental techniques in low-temperature physics. 4. Oxford University press, ISBN 0 19 851427 1
RUAG. www.ruag.com/space/ch. [Online]
Kalsi SS et al (2004) Development status of rotating machines employing superconducting field windings. Proc IEEE 92:1688
Barnes PN, Sumption MD, Rhoads GL (2005) Review of high power density superconducting generators: present state and prospects for incorporating YBCO windings. Cryogenics 45:670–686
Nick W et al (2010) Development and construction of an HTS rotor for ship propulsion application. J Phys Conf Ser 234(032040):1–9
Snitchler G (2010) Progress on high temperature superconductor propulsion motors and direct drive wind generators. International Power Electronics Conference—ECCE Asia -, IPEC. 2010, pp 5–10
Lewis C, Muller J (2007) A direct drive wind turbine HTS generator. IEEE Power Engineering Society General Meeting. pp 1–8
AML Advanced Magnet Lab. www.magnetlab.com. [Online]
Selvamanickam V et al (2009) High performance 2G wires: from R&D to pilot-scale manufacturing. IEEE Trans Appl Supercond 19(3):3225
Radebaugh R (2009) Cryocoolers: the state of the art and recent developments. J Phys: Condens Matter 21(164219):1–9
EU (2010) Critical raw materials for the EU (Report). Brussels: European Commision, June
Acknowledgment
The funding of the Superwind project was provided by the Technical University of Denmark from the globalization funds and the support of Henrik Bindslev is acknowledged. Also the valuable discussions with colleges and co-workers are acknowledged. This work is dedicated to the memory of Steen Tronæs Frandsen.
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Abrahamsen, A.B., Jensen, B.B. (2012). Superconducting Direct Drive Wind Turbine Generators: Advantages and Challenges. In: Muyeen, S. (eds) Wind Energy Conversion Systems. Green Energy and Technology. Springer, London. https://doi.org/10.1007/978-1-4471-2201-2_3
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DOI: https://doi.org/10.1007/978-1-4471-2201-2_3
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