Analysis of impact of grid-connected wind power on small signal stability

Wind Energy

Volumn 14, Issue 4, 2011, Pages 517-537

  Shi, L B ^a   Wang, C ^a   Yao, L Z ^b   Wang, L M ^a   Ni, Y X ^a  

^a TSINGHUA UNIVERSITY   (China)

^b Alstom UK   (United Kingdom)

Author keywords

doubly fed induction generator; Monte Carlo; small signal stability analysis; Weibull distribution; wind generation intermittence

Indexed keywords

ASYNCHRONOUS GENERATORS; ELECTRIC FAULT CURRENTS; ELECTRIC MACHINE CONTROL; ELECTRIC MACHINE THEORY; ELECTRIC POWER TRANSMISSION NETWORKS; MONTE CARLO METHODS; STABILITY; WEIBULL DISTRIBUTION; WIND POWER;

DOUBLY FED INDUCTION GENERATOR (DFIG); DOUBLY FED INDUCTION GENERATORS; MONTE CARLO SIMULATION TECHNIQUE; POWER SYSTEM SMALL SIGNAL STABILITY; PROBABILISTIC SMALL SIGNAL STABILITY ANALYSIS; SMALL SIGNAL STABILITY ANALYSIS; STATOR FLUX ORIENTED VECTOR CONTROL; WIND GENERATION;

ELECTRIC POWER SYSTEM STABILITY;

BENCHMARKING; CONTROL SYSTEM; MONTE CARLO ANALYSIS; NUMERICAL MODEL; RENEWABLE RESOURCE; SIGNAL; WEIBULL THEORY; WIND MEASUREMENT; WIND POWER;

EID: 79956199011     PISSN: 10954244     EISSN: 10991824     Source Type: Journal    
DOI: 10.1002/we.440     Document Type: Article

References (36)

1. Ackermann T., Wind power in power systems. Wiley: Chichester, 2005.
2. Carlin PW, Laxson AS, Muljadi EB., The history and state of the art of variable-speed wind turbine technology. Tech. Rep. NREL/TP-500-28 607, National Renewable Energy Laboratory, Colorado, 2001.
3. Joselin Herbert GM, Iniyan S, Sreevalsan E, Rajapandian S., A review of wind energy technologies. Renewable and Sustainable Energy Reviews 2007; 11: 1117-1145. (Pubitemid 44827847)
4. de Alegría IM, Andreu J, Martín JL, Ibañez P, Villate JL, Camblong H., Connection requirements for wind farms: a survey on technical requirements and regulation. Renewable and Sustainable Energy Reviews 2007; 11: 1858-1872. (Pubitemid 46898916)
5. Denny E, O'Malley M., Wind generation, power system operation, and emissions reduction. IEEE Transactions on Power Systems 2006; 21: 341-347. (Pubitemid 43204732)
6. Malatestas PB, Papadopoulos MP, Stavrakakis GS., Modeling and identification of diesel-wind turbines systems for wind penetration assessment. IEEE Transactions on Power Systems 1993; 8: 1091-1097.
7. Stavrakakis GS, Kariniotakis GN., A general simulation algorithm for the accurate assessment of isolated diesel-wind turbines systems interaction. I. A general multimachine power system model. IEEE Transactions on Energy Conversion 1995; 10: 577-583.
8. Kumano T, Short A., Circuit Study of a Wind Farm Considering Mechanical Torque Fluctuation. IEEE Power Engineering Society General Meeting 2006; 1: 1-6.
9. Feijõo A, Cidrás J, Carrillo C., A third order model for the doubly-fed induction machine. Electric Power Systems Research 2000; 56: 121-127. (Electro-mechanical).
10. Slootweg JG, Polinder H, Kling WL., Dynamic modelling of a wind turbine with doubly fed induction generator. IEEE Power Engineering Society Summer Meeting 2001; 1: 644-649.
11. Slootweg JG, Kling WL., The impact of large scale wind power generation on power system oscillations. Electric Power Systems Research 2003; 67: 9-20.
12. Ekanayake JB, Holdsworth L, Jenkins N., Comparison of 5th order and 3rd order machine models for doubly fed induction generator (DFIG) wind turbines. Electric Power Systems Research 2003; 67: 207-215.
13. Akhmatov V., Variable-speed wind turbine with doubly-fed induction generators part i: modelling in dynamic simulation tools. Wind Engineering 2002; 26: 85-108. (Pubitemid 35431985)
14. Akhmatov V, Knudsen H., Large penetration of wind and dispersed generation into Danish power grid. Electric Power Systems Research 2007; 77: 1228-1238. (Pubitemid 46667220)
15. Shi L, Xu Z, Hao J, Ni Y., Modeling analysis of transient stability simulation with high penetration of grid-connected wind farms of DFIG type. Wind Energy 2007; 10: 303-320. (Pubitemid 47246260)
16. Koch FW, Erlich I, Shewarega F., Dynamic simulation of large wind farms integrated in a multi machine network. IEEE Power Engineering Society General Meeting 2003; 4: 1-6.
17. Mendonca A, Lopes JAP., Impact of large scale wind power integration on small signal stability. Future Power System International Conference 2005; 1: 1-5.
18. Rouco L, Zamora JL., Dynamic patterns and model order reduction in small-signal models of doubly fed induction generators for wind power applications. IEEE Power Engineering Society General Meeting 2006; 1-8.
19. Wu F, Zhang X-P, Godfrey K, Ju P., Modeling and control of wind turbine with doubly fed induction generator. IEEE Power Systems Conference and Exposition 2006; 1404-1409.
20. Mei F, Pal BC., Modelling and small-signal analysis of a grid connected doubly-fed induction generator. IEEE Power Engineering Society General Meeting 2005; 3: 2101-2108. (Pubitemid 41497278)
21. Li X, Zeng Z, Zhou J, Zhang Y., Small signal stability analysis of large scale variable speed wind turbines integration. International Conference on Electrical Machines and Systems 2008; 2526-2530.
22. Tsourakisa G, Nomikosb BM, Vournasa CD., Effect of wind parks with doubly fed asynchronous generators on small-signal stability. Electric Power Systems Research 2009; 79: 190-200.
23. Wang KW, Chung CY, Tse CT, Tsang KM., Improved probabilistic method for power system dynamic stability studies. IEE Proceedings-Generation Transmission and Distribution 2000; 147: 37-43. (Pubitemid 30540443)
24. Wang KW, Chung CY, Tse CT, Tsang KM., Probabilistic eigenvalue sensitivity indices for robust PSS site selection. IEE Proceedings-Generation Transmission and Distribution 2001; 148: 603-609. (Pubitemid 34064217)
25. Yi H, Hou Y, Cheng S, Zhou H, Chen G., Power system probabilistic small signal stability analysis using two point estimation method. International Universities Power Engineering Conference 2007; 402-407.
26. Xu Z, Dong ZY, Zhang P., Probabilistic small signal analysis using Monte Carlo simulation. IEEE Power Engineering Society General Meeting 2005; 2: 1658-1664. (Pubitemid 41497189)
27. Xu Z, Ali M, Don ZY, Li X., A novel grid computing approach for probabilistic small signal analysis. IEEE Power Engineering Society General Meeting 2006; 1-8.
28. Rueda JL, Colomé DG, Erlich I., Assessment and enhancement of small signal stability considering uncertainties. IEEE transaction on Power Systems 2009; 24: 198-207.
29. Tapia G, Tapia A, Ostolaza JX., Two alternative modeling approaches for the evaluation of wind farm active and reactive power performances. IEEE Transaction on Energy Conversion 2006; 21: 909-920. (Pubitemid 44824176)
30. Kundur P., Power System Stability and Control. McGraw-Hill: New York, 1994.
31. Wang C, Shi L, Wang L, Ni Y., Modelling analysis in power system small signal stability with grid-connected wind farms of DFIG Type. Wind Engineering 2008; 32: 243-264.
32. Helton JC, Davis FJ., Latin hypercube sampling and the propagation of uncertainty in analyses of complex systems. Reliable Energy System Safety 2003; 81: 23-69.
33. Fishman G. Monte Carlo,: Concepts, Algorithms, and Applications. Springer-Verlag: New York, 1996.
34. Pai MA. Energy Function, Analysis For Power System Stability. Kluwer Academic Publishers: Boston, 1989.
35. Papaefthymiou G, Verboomen J, Schavemaker PH, Sluis L., Impact of stochastic generation in power systems contingency analysis. 9th International Conference on Probabilistic Methods Applied to Power Systems, 2006; 1-6.
36. Negra NB, Holmstrøm O, Bak-Jensen B, Sorensen P., Aspects of relevance in offshore wind farm reliability assessment. IEEE transaction on Energy Conversion 2007; 22: 159-166. (Pubitemid 46487488)