Range extension control system for electric vehicle during acceleration and deceleration based on front and rear driving/braking force distribution considering slip ratio and motor loss

被引:0
作者
Harada, Shingo [1 ]
Fujimoto, Hiroshi [1 ]
机构
[1] University of Tokyo, Kashiwa 277-8561, 5-1-5, Kashiwanoha
关键词
Driving and braking force distribution; Electric vehicle; Motor loss; Range extension control system; Slip ratio;
D O I
10.1541/ieejias.134.268
中图分类号
学科分类号
摘要
Electric vehicle have become a universally recognized solution for future green transportation. However, the mileage per charge of the EVs is lower than that of internal combustion engine vehicles. In this paper, a model-based range extension control system (RECS) for acceleration and deceleration modes is proposed. In this proposed method, slip ratio, copper loss, and iron loss are considered. The total driving-braking force is distributed based on the vehicle acceleration and velocity. The effectiveness of the proposed method is verified through simulations and experiments. © 2014 The Institute of Electrical Engineers of Japan.
引用
收藏
页码:268 / 275
页数:7
相关论文
共 14 条
[1]  
Hori Y., Future vehicle driven by electricity and control-research on four-wheel-motored: Uot electric march II, IEEE Trans. IE, 51, 5, pp. 954-962, (2004)
[2]  
Shirato R., Akiba T., Fujita T., Shimodaira S., A study of novel traction controlmethod for electric propulsuon vehicle, Journal of the Society of Instrument and Control Engineers, 50, 3, pp. 195-200, (2011)
[3]  
Maeda K., Fujimoto H., Hori Y., Four-wheel Driving-force Distribution Method Based on Driving Stiffness and Slip Ratio Estimation for Electric Vehicle with In-wheel Motors, pp. 1286-1291, (2012)
[4]  
Ando N., Fujimoto H., Yaw-rate control for electric vehicle with active front/rear steering and driving/braking force distribution of rear wheels, Proc. The 11th IEEE International Workshop on Advanced Motion Control, pp. 726-731, (2010)
[5]  
Toda H., Oda Y., Kohno M., Ishida M., Zaizen Y., A new high flux density non-oriented electrical steel sheet and its motor performance, IEEE Trans. MAGNETICS, 48, 11, pp. 3060-3063, (2013)
[6]  
Hijikata H., Shigeta T., Kariya N., Akatsu K., Kato T., A study of dual winding method for compound magnetomotive force motor, IEEJ Trans.IA, 133, 10, pp. 986-994, (2013)
[7]  
Inoue K., Kotera K., Asano Y., Kato T., Optimal torque and rotatingspeed trajectoriesminimizing energy loss of induction motor under both torque and speed limits, Proc. Power Electronics and Drive Systems, 2013 IEEE 10th International Conference, pp. 1127-1132, (2013)
[8]  
Yuan X., Wang J., Torque distribution strategy for a front- and rear-wheel-driven electric vehicle, IEEE Trans Veh. Technol, 61, 8, pp. 3365-3374, (2012)
[9]  
Fujimoto H., Sumiya H., Range extension control system of electric vehicle based on optimal torque distribution and cornering resistance minimization, Proc. 37th Annual Conference of the IEEE Industrial Electronics Societ, pp. 3727-3732, (2011)
[10]  
Egami S., Fujimoto H., Proposal of range extension control system for electric vehicle based on front and rear driving force distribution considering load transfer, Proc. IEE of Japan Technical Meeting Record IIC-11-136, pp. 13-18, (2011)