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Effect of regenerative braking energy on battery current balance in a parallel hybrid gasoline-electric vehicle under FTP-75 driving mode

Authors
Kim, J. S.Kim, S. M.Jeong, J. H.Jeong, S. C.Lee, J. W.
Issue Date
Oct-2016
Publisher
KOREAN SOC AUTOMOTIVE ENGINEERS-KSAE
Keywords
Hybrid electric vehicle; Chassis dynamometer; FTP 75 driving mode; Braking driving mode; Regenerative brake; Battery current balance
Citation
INTERNATIONAL JOURNAL OF AUTOMOTIVE TECHNOLOGY, v.17, no.5, pp.865 - 872
Journal Title
INTERNATIONAL JOURNAL OF AUTOMOTIVE TECHNOLOGY
Volume
17
Number
5
Start Page
865
End Page
872
URI
http://scholarworks.bwise.kr/ssu/handle/2018.sw.ssu/7482
DOI
10.1007/s12239-016-0084-z
ISSN
1229-9138
Abstract
In recent years, a hybrid electric vehicle (HEV) has been considered a successful technology. Especially, in case of a full HEV, the motor can drive the vehicle by itself at low velocity or assist the engine at high load. To improve the hybrid electric vehicle's efficiency, a regenerative braking system is also applied to recover from kinetic energy. In this study, an experimental control apparatus was set up with a parallel hybrid electric vehicle mounted on a chassis dynamometer to measure ECU (engine control unit) and MCU (motor control unit) signals, including the current and state of charge in the battery. In order to analyze regenerative braking characteristics, user define braking driving cycle was introduced and carried out using different initial velocities and braking times. The FTP 75 driving cycle was then adapted under different initial SOC (state of charge) levels. The experiment data was analyzed in accordance with the vehicle velocity, battery current, instant SOC level, motor RPM, engine RPM, and then vehicle driving mode was decided. In case of braking driving cycle, it was observed that SOC were increased up to 1.5 % when the braking time and the velocidy were 6 second and 60 km/h, respectively. In addition, using the FTP 75 driving cycle, mode 1 was most frequently operated at SOC 65 conditions in phase 1. In phase 2, due to frequent stop-go hills, percentage of mode 1 was increase by 22 %. Eventually, despite of identity, it was shown that the characteristics of phase 3 differed from phase 1 due to the evanishment of the effects of initial SOCs.
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