Optimized Design of Wind Farm Configuration: Case Study
Keywords:
Potential, wind farm, optimized design, ratio cost per unit energyAbstract
The initial result of wind energy study conducted in onshore Purworejo in one year (October 2004 ~ September 2005) shows that potential wind speed on the heights of 100 m with the Weibull shape parameter is 1.74 and the Weibull scale parameter is 6.93 m/s. The research is located near fishery industrial activity, fish auction market and transmission network electric. Study for the development of potential wind energy into wind farm in coastal area of South Purworejo is strategic for Central Java Province, Indonesia. In numerical procedure, two-numerical phases are conducted, and they cover (i) numerical based on capacity factor and (ii) numerical based on wind farm configuration design. From result and discussion can be concluded that wind farm configuration with size Lrow = 4000 m and Lcol = 1000 m, wind turbines with a diameter of 113 m with 42 turbines, produced total energy about 363382.71 MWh per year with ratio cost per energy about 0.000079, and it has the most optimal result.
References
Research and development committee. Research survey study and execution wind energy (in Indonesian), Central Java Province, Indonesia; 2005.
Kamal S. The study of wind energy potential at the coastal area of Purworejo district to stimulate the electricity utilization using environmentally friendly renewable energy (in Indonesian). Journal of Human and environmental (in Indonesian) 2007; 14: 26-34.
Mustakerov I, Borrisova D. Wind turbine type and number choice using combinatorial optimization. Renewable Energy 2010; 35: 1887-1894.
White G, Garrad A, Tindal A. Integrated design methodology for wind farms, IPENZ Transactions 1997;24(1/GEN):62-68.
Ettoumi FY, Adane Abd El H, Benzaoui ML, Bourzerqui N. Comparative simulation of wind park design and siting in algeria. Renewable Energy 2008; 33: 2333-2338.
Grady SA, Hussainia MY, Abdullah MM, Placement of wind Turbines using genetic algorithms. Renewable Energy 2005; 30: 259-270.
Sorensen JD, Optimal reliability-based design of offshore wind turbine parks, 2nd IFED Forum, Lake Louise, Canada: April 26-29, 2006.
Kongnam C, Nuchprayoon S, Premrudeepreechacharn S, Uatrongjit S. Decision analysis on generation capacity of a wind park. Renewable and Sustainable Energy Reviews 2009.
Johnson GL. Wind Energy Systems, electronic edition, Manhattan, KS. 2006, http://eece.ksu.edu/~gjohnson/Windbook.pdf; October 10, 2006 [accessed May 2011].
Mosetti G, Poloni C, Diviacco B, Optimization of wind turbine positioning in large wind farms by means of a genetic algorithm. Journal of Wind Engineering and Industrial Aerodynamics 1994; 51: 105-116.
Frandsen S. On the wind speed reduction in the center of large clusters of wind turbines. Proceedings of the European Wind Energy Conference. 1991, p. 375–80.
Katic I, Hojstrup J, Jensen NO. A simple model for cluster efficiency. Proceedings of the European Wind Energy Association Conference and Exhibition. 1986, p. 407–10.
Jensen, N. O. (1983). A note of wind generator interaction, Technical Report Risø-M-2411, Risø National Laboratory.
Marmidis G, Lazarou S, Pyrgioti E. Optimal placement of wind turbines in a wind park using Monte Carlo simulation. Renewable Energy 2008; 33: 1455-1460.
Donovan S. Wind farm optimization. 2005. Department of Engineering Science University of Auckland New Zealand. http://www.orsnz.org.nz/Prizes/Papers/2005WindFarmOptimization.pdf [accessed November 2012].
Enercon, 2014. Enercon product overview. http://www.enercon.de/p/downloads/ENERCON_PU_en.pdf. [accessed October 2014].
Sinovel, 2012. Technical specification SL 1500/89 (CC-60Hz). Sinovel wind group Co.,Ltd.
Sinovel, 2011. Specification SL3000 series wind turbine SL3000/113-HH90 (60Hz). Sinovel wind group Co.,Ltd.
Vestas V80, 2014. Vestas V80-2.0MW 2000 80.0. [accessed October 2014].
Vestas V112, 2014. General specification V112-3.0 MW 50/60 Hz. https://id.scribd.com/doc/225239542/Technische-Specificatie-Windturbine-Vestas-v-112-3-0-MW-5060-Hz. [accessed October 2014].
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