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一种大功率风电机组变换器新型控制技术研究 被引量:1

THE RESEARCH OF A NEW CONTROL TECHNOLOGY FOR HIGH POWER WIND TURBINE'S CONVERTER
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摘要 针对变速恒频风电机组变换器功率日益增长的现状,提出了一种新型控制技术——交错采样变矢量(SSTV)控制技术。该技术基于双并联变换器的平均值等效模型,它在不需要增加任何硬件成本的基础上,可以提高双并联变换器的等效输出开关频率,降低输出电流谐波;同时,在双并联变换器的交流侧和直流侧都直接相连的条件下,可以有效抑制零序电流。该文对交错采样变矢量控制技术的原理和实现方式都进行了详细地阐述。仿真和计算结果表明,该方案将双并联变换器的等效输出开关频率提高了1倍,同时将零序电流的峰值减少了80%以上。此外,该技术还具有鲁棒性强,易于工程实现等优点。 A new control technology-staggered sample transforming vector (SSTV) control technology-has been proposed for the continuous development of the converter' s power in the variable speed constant frequency wind turbine. Based on the average model of dual parallel converter, this control technology can increase the equivalent output switching frequency of dual parallel converter and decrease the output current harmonic without any additional hardware; further more, it can restrain the zero sequence current effectively when the ac-sides an dc-sides of dual parallel converter are connected directly. The principle and implement scheme of SSTV has been discussed in detail in the paper. The results of simulation and compute demonstrate that it can double the equivalent output switching frequency of dual parallel converter and decrease more than 80% of the peak value of zero sequence current. Besides, the technology is robust and easy to implement in the project.
出处 《太阳能学报》 EI CAS CSCD 北大核心 2009年第1期129-136,共8页 Acta Energiae Solaris Sinica
基金 国家高技术研究发展计划(863)项目(2003AA512022-3)
关键词 变速恒频 风力发电 双并联变换器 平均值模型 交错采样变矢量控制 零序电流 空间矢量调制 variable speed constant frequency wind power dual parallel converter average model staggered sample transforming vector control zero sequence current SVM
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  • 1李亚西,武鑫,赵斌,许洪华.世界风力发电现状及发展趋势[J].太阳能,2004(1):6-7. 被引量:31
  • 2陈丹晨.美国再兴风力发电热[J].生态经济,2006,22(11):6-9. 被引量:1
  • 3郭洪波,王振远,周旭.完善我国风力发电政策的思考[J].可再生能源,2006,24(1):82-85. 被引量:5
  • 4Naoe Kawakami, Mitsuyuki Hombu, et al. Quick response and low-distortion current control for multiple inverter-fed in- duction motor drivcs[J]. IEEE Transaetionson Power Electronics, 1994, 9(2): 240---246.
  • 5Zhang Z C, Ooi B T. Multi-modular current-source SPWM convener superconducting magnetic energy storage system[ J ]. IEEE Transactions on Power Electronics, 1993, 8(3):250-256.
  • 6Zhang Z C, Kuang J, Wang X, et al. Force commutated HVDC and SVC based on phase-shifted multi-converter modules[J]. IEEE Transactions on Power Delivery, 1993, 8(2): 715--718.
  • 7Bakhshai A R, Joos G, Jin H. Space vector pattern generators for multi-module low switching frequency high power VAr compensators [ A ]. Power Electronics Specialists Conference [C], 1997,1:344--350.
  • 8Wiechmann E P, Burgos R P, Boboyevich D. Staggered sampiing space vector modulation for multi-motor AC-drive active front end converters [ A]. Industrial Electronics, Proceedings of the 2000 IEEE International Symposium[ C], 2000, 1 (4 - 8) : 282--287.
  • 9George M, Seen C L. Modeling and control of zero-sequence current of parallel three-phase converters using matlah/power system bloekset [A]. Power Systems Conference and Exposition[C], 2004,10-13:1440--1443.
  • 10Lee C S, Kim S, Kim C B, et al. Parallel UPS with a instantaneous current sharing control [ A ]. Industrial Electronics Society, 1998. IECON '98. Proceedings of the 24th Annual Conference of the IEEE[ C], 1998, 1(31):568--573.

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