ARTICLE
Energy management strategy of dual planetary hybrid electric vehicle based on optimal transmission efficiency
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School of Automobile and Traffic Engineering, Jiangsu University, Zhenjiang, China
 
 
Submission date: 2017-11-20
 
 
Acceptance date: 2018-11-23
 
 
Publication date: 2019-04-15
 
 
Journal of Theoretical and Applied Mechanics 2019;57(2):383-396
 
KEYWORDS
ABSTRACT
A power split hybrid electric vehicle with dual planetary gear sets is studied in this paper. Firstly, the power split and circulation phenomenon are further described by analyzing a speed and torque relationship between the engine, motors and the output shaft based on the lever analogy. The transmission efficiency and the electric power ratio are then obtained. The working modes of the hybrid electric vehicle (HEV) are divided according to the sys- tem operation mechanism. On this basis, the engine optimal operating line (OOL) control strategy and the mechanical point (MP) control strategy are designed. Furthermore, a fuzzy controller is designed to realize the optimal torque distribution of the engine and the motors in the MP control strategy. Simulation results demonstrate that the MP control strategy can guarantee a higher efficiency of the transmission system, which also shows good performance in improving fuel economy of the HEV by adjusting the engine operating point.
 
REFERENCES (26)
1.
Andaloro L., Arista A., Agnello G., Napoli G., Sergi F., Antonucci V., 2017, Study and design of a hybrid electric vehicle (Lithium Batteries-PEMFC), International Journal of Hydrogen Energy, 42, 5, 3166-3184.
 
2.
Chen C., Liang T.T., 2011, Theoretic study of efficiency of two-DOFs of epicyclic gear transmission via virtual power, Journal of Mechanical Design, 133, 3, 031007.
 
3.
Du A., Liu K., Zhu Z., Wang C., 2015, Structure optimization of single-mode compound split hybrid power train, Chinese Mechanical Engineering, 26, 21, 2976-2981.
 
4.
Gupta A.K., Ramanarayanan C.P., 2013, Analysis of circulating power within hybrid electric vehicle transmissions, Mechanism and Machine Theory, 64, 131-143.
 
5.
Kang J., Choi W., Hong S., Park J., Kim H., 2011, Control strategy for dual-mode power split HEV considering transmission efficiency, Vehicle Power and Propulsion Conference, 1-6.
 
6.
Kang J., Choi W., Kim H., 2012, Development of a control strategy based on the transmission efficiency with mechanical loss for a dual mode power split-type hybrid electric vehicle, International Journal of Automotive Technology, 13, 5, 825-833.
 
7.
Kim J., Kang J., Kim Y., Kim T., Min B., Kim H., 2010, Design of power split transmission: design of dual mode power split transmission, International Journal of Automotive Technology, 11, 4, 565-571.
 
8.
Kim N., Kim J., Kim H., 2008, Control of dual mode power split transmission for a hybrid electric vehicle, World Electric Vehicle Journal, 2.
 
9.
Langlois N., 2010, Optimized fuzzy logic control strategy of hybrid vehicles using ADVISOR, International Conference on Computer, 4, 444-447.
 
10.
Okamura M., Sato E., Sasaki S., 2003, Development of hybrid electric drive system using a boost converter, EVS-20, November.
 
11.
Schouten N.J., Salman M.A., Kheir N.A., 2002, Fuzzy logic control for parallel hybrid vehicles, IEEE Transactions on Control Systems Technology, 10, 3, 460-468.
 
12.
Schulz M., 2004, Circulating mechanical power in a power-split hybrid electric vehicle transmission, Drive System Technique, 218, 12, 1419-1425.
 
13.
Sheu K.B., 2008, Simulation for the analysis of a hybrid electric scooter powertrain, Applied Energy, 85, 7, 589-606.
 
14.
Song R.F., 2014, Research on Configuration Analyzing Methodology of Dual Mode Power-split Hybrid Powertrain (in Chinese), Jilin University.
 
15.
Wang W., 2014a, Control Algorithm Optimization of Power split HEV Based on Systematic Instantaneous Optimal, Jilin University.
 
16.
Wang W., Song R., Liu S., Zhai X., Cao Y., 2015, An analysis on the configuration of dual-mode power-split hybrid powertrain system, Automotive Engineering, 6, 648-654.
 
17.
Wang W., Wang Q., Tian Y., Wang R., Wen Q., 2017, Control strategy for compound power split hybrid electric bus based on fuzzy control, Journal of Jilin University (Journal of Engineering).
 
18.
Wang Z., 2014b, Configuration Analysis and Control Research for Dual-Planetary Gear HEV, Jilin University.
 
19.
Wishart J.D., Zhou L., Dong Z., 2007, Modelling and simulation of two-mode hybrid vehicle architecture, International Design Engineering Technical Conferences and Computers and Information in Engineering Conference, American Society of Mechanical Engineers, 1091-1112.
 
20.
Yao Y., 2016, Research on Power System Modeling and Control Strategy of Dual Planetary Gear Hybrid Electric Vehicle, Jiangsu University.
 
21.
Yin C., Pu J., Zhang J., 2006, The fuzzy torque control strategy for parallel hybrid electric vehicle, Journal of Shanghai Jiaotong University.
 
22.
Yu H., Huang M., Deng C., 2007, Determination of optimal operating curve and efficient working area of parallel HEV engine, Shanghai Automobile, 7, 3-6.
 
23.
Yu H.S., Zhang J.W., Zhang T., 2012, Control strategy design and experimental research on a four-shaft electronic continuously variable transmission hybrid electric vehicle, Proceeding of the Institution of Mechanical Engineers Part D Journal of Automobile Engineering, 226, 12, 1594-1612.
 
24.
Zhang X., 2015, Analysis, Modeling and Simulation of Power Flow for Hybrid Electric Vehicle with Dual-Planetary Gear, Jiangsu University.
 
25.
Zhao B., Ma D., 2014, Design and simulation of a new-type hybrid power split unit based on two planetary gear sets, Transmission Technology, 28, 1, 20-25.
 
26.
Zhuang W., Zhang X., Ding Y., Wang L., Hu X., 2016, Comparison of multi-mode hybrid powertrains with multiple planetary gears, Applied Energy, 178, 624-632.
 
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