Payman A,Pierfederici S,Meibody-Tabar F．Energy control of supercapacitor/fuel cell hybrid power source[J]．Energy Conversion and Management,2008,49(6)：1637-1644．
[2]
倪雨,许建平．准滑模控制DC-DC变换器分析[J]．中国电机工程学报,2008,28(21)：1-6．Ni Yu,Xu Jianping．Study of quasi-sliding-mode control switching DC-DC converters[J]．Proceedings of the CSEE,2008,28(21)：1-6(in Chinese)．
[3]
付丽,杨旭,卓放,等．基于滑模变结构控制的数字化全桥移相软开关电源[J]．电工电能新技术,2003,22(4)：32-35．Fu Chongli,Yang Xu,Zhuo Fang,et al．Digital control based on sliding mode for full bridge ZVS PWM switching power supply[J]．Advanced Technology of Electrical Engineering and Energy,2003,22(4)：32-35(in Chinese)．
[4]
黄凯征,汪万伟,王旭． 基于滑模控制的PWM整流器建模与仿真[J]．电网技术,2009,33(8)：18-23．Huang Kaizheng,Wang Wanwei,Wang Xu．Modeling and simulation of PWM rectifier based on sliding-mode control[J]．Power System Technology,2009,33(8)：18-23(in Chinese)．
[5]
邹德虎,王宝华．SVC与发电机励磁的逆推Terminal滑模协调控制[J]．电网技术,2011,35(4)：108-111．Zou Dehu,Wang Baohua．Backstepping terminal sliding mode coordinated control for SVC and generator excitation[J]．Power System Technology,2011,35(4)：108-111(in Chinese)．
[6]
马静,郭锐,王玉慧,等．基于积分滑模控制的广域阻尼鲁棒控制策略[J]．电网技术,2013,37(2)：362-366．Ma Jing,Guo Rui,Wang Yuhui,et al．Wide-area damping robust control strategy based on integral sliding mode control[J]．Power System Technology,2013,37(2)：362-366(in Chinese)．
[7]
李生民,何欢欢,张玉坤,等．基于滑模变结构的双馈风力发电机直接功率控制策略研究[J]．电网技术,2013,37(7)：2006-2010．Li Shengmin,He Huanhuan,Zhang Yukun,et al．A sliding mode variable structure-based direct power control strategy for doubly fed induction generator[J]．Power System Technology,2013,37(7)：2006-2010(in Chinese)．
[8]
郑雪梅,郭玲,徐殿国,等．双馈感应发电机空载并网的高阶滑模控制策略[J]．电力系统自动化,2012,36(7)：12-16．Zheng Xuemei,Guo Ling,Xu Dianguo,et al．High-order sliding mode control for no-load cutting-in of DFIG wind turbines[J]．Automation of Electric Power Systems,2012,36(7)：12-16(in Chinese)．
[9]
Gensior A,Woywode O,Rudolph J,et al．On differential flatness,trajectory planning,observers,and stabilization for DC-DC converters[J]．IEEE Transactions on Circuits and Systems：Regular Papers,2006,53(9)：2000-2010．
[10]
Zandi M,Payman A,Martin J P,et al．Flatness based control of a hybrid power source with fuel cell/supercapacitor/battery[C]//Energy Conversion Congress and Exposition(ECCE)．Atlanta,GA,USA： IEEE,2010：1629-1634．
[11]
Siew-Chong Tan,Yuk-Ming Lai,Chi Kong Tse．Sliding mode control of switching power converters：techniques and implementation[M]．USA：CRC Press,2012：244-245．
[12]
宋永华,胡泽春,阳岳希．电动汽车电池的现状及发展趋势[J]．电网技术,2011,35(4)：1-7．Song Yonghua,Hu Zechun,Yang Yuexi．Present status and development trend of batteries for electric vehicles[J]．Power System Technology,2011,35(4)：1-7(in Chinese)．
[13]
高赐威,张亮．电动汽车充电对电网影响的综述[J]．电网技术,2011,35(2)：127-131．Gao Ciwei,Zhang Liang．A survey of influence of electrics vehicle charging on power grid[J]．Power System Technology,2011,35(2)：127-13l(in Chinese)．
[14]
杨宏,王鹤,王雪冬,等．可再生能源发电系统中VRLA蓄电池的过充电保护与温度补偿特性的研究[J]．太阳能学报,2001,22(2)：223-225．Yang Hong,Wang He,Wang Xuedong,et al．Study on overcharging protection and temperature compensation of VRLA battery in renewable energy system[J]．Acta Energiae Solaris Sinica,2001,22(2)：223-225(in Chinese)．
[15]
于远彬．车载复合电源设计理论与控制策略研究[D]．吉林：吉林大学,2008．
[16]
汪江卫．HEV车载复合电源系统的控制策略优化研究[D]．武汉：武汉理工大学,2011．
[17]
Chandrasekar V,Joseph S C,Chacko R V,et al．Design and implementation of a digital automatic high frequency battery charger for HEV application[C]//2012 IEEE International Electric Vehicle Conference (IEVC)．Greenville,SC：IEEE,2012：1-6．
[18]
刘志文,夏文波,刘明波．基于复合储能的微电网运行模式平滑切换控制[J]．电网技术,2013,37(4)：906-913．Liu Zhiwen,Xia Wenbo,Liu Mingbo,Control method and strategy for smooth switching of microgrid operation modes based on complex energy storage[J]．Power System Technology,2013,37(4)：906-913(in Chinese)．
[19]
Guan Xiaoqing,Wang Jidong．Trajectory planning theory and method of industrial robot[C]//Computer Research and Development (ICCRD)．Shanghai,China：IEEE,2011：340-343．
[20]
Thounthong P,Pierfederici S,Davat B．Analysis of differential flatness-based control for a fuel cell hybrid power source[J]．IEEE Transactions on Energy Conversion,2010,25(3)：909-920．
