Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification

Energy management strategy is developed by considering the random and air conditioning load fluctuation, which greatly affected the torque control of the electric motor in electric vehicle. Firstly, the vehicle power consumption model is established, based on the influencing factors of electric vehi...

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Main Authors: Chaofeng Pan, Yuanxue Tao, Limei Wang, Huanhuan Li, Jufeng Yang
Format: Article
Language:English
Published: SAGE Publishing 2021-02-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1177/1687814021994381
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spelling doaj-a991f4250b2e4e26a14d518d1354204e2021-02-10T21:03:45ZengSAGE PublishingAdvances in Mechanical Engineering1687-81402021-02-011310.1177/1687814021994381Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identificationChaofeng PanYuanxue TaoLimei WangHuanhuan LiJufeng YangEnergy management strategy is developed by considering the random and air conditioning load fluctuation, which greatly affected the torque control of the electric motor in electric vehicle. Firstly, the vehicle power consumption model is established, based on the influencing factors of electric vehicle energy consumption: random load and air conditioning load. Therefore, driving conditions with random characteristics representing the actual random load are constructed. According to the clustered characteristic parameters, the driving conditions were classified as different driving modes. Secondly, the mode of predicted condition was taken as a variable to evaluate the logic threshold strategy and fuzzy control strategy in which the influence of air conditioning was considered. Finally, under the condition of New European Driving Cycle (NEDC), the proposed management strategy was simulated in software environment, and the hardware in-loop (HIL) test was performed to verify the strategy. The simulation and HIL test results show that the proposed energy management strategy can increase the driving range by considering the load fluctuation of air conditioning. Furthermore, the strategy combining the driving mode prediction can alleviate the decline rate of SOC. And the fuzzy control strategy has better adaptability in complex conditions and lower battery energy consumption rate.https://doi.org/10.1177/1687814021994381
collection DOAJ
language English
format Article
sources DOAJ
author Chaofeng Pan
Yuanxue Tao
Limei Wang
Huanhuan Li
Jufeng Yang
spellingShingle Chaofeng Pan
Yuanxue Tao
Limei Wang
Huanhuan Li
Jufeng Yang
Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification
Advances in Mechanical Engineering
author_facet Chaofeng Pan
Yuanxue Tao
Limei Wang
Huanhuan Li
Jufeng Yang
author_sort Chaofeng Pan
title Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification
title_short Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification
title_full Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification
title_fullStr Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification
title_full_unstemmed Fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification
title_sort fuzzy energy management strategy for electric vehicle combining driving cycle construction and air-conditioning load identification
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8140
publishDate 2021-02-01
description Energy management strategy is developed by considering the random and air conditioning load fluctuation, which greatly affected the torque control of the electric motor in electric vehicle. Firstly, the vehicle power consumption model is established, based on the influencing factors of electric vehicle energy consumption: random load and air conditioning load. Therefore, driving conditions with random characteristics representing the actual random load are constructed. According to the clustered characteristic parameters, the driving conditions were classified as different driving modes. Secondly, the mode of predicted condition was taken as a variable to evaluate the logic threshold strategy and fuzzy control strategy in which the influence of air conditioning was considered. Finally, under the condition of New European Driving Cycle (NEDC), the proposed management strategy was simulated in software environment, and the hardware in-loop (HIL) test was performed to verify the strategy. The simulation and HIL test results show that the proposed energy management strategy can increase the driving range by considering the load fluctuation of air conditioning. Furthermore, the strategy combining the driving mode prediction can alleviate the decline rate of SOC. And the fuzzy control strategy has better adaptability in complex conditions and lower battery energy consumption rate.
url https://doi.org/10.1177/1687814021994381
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AT yuanxuetao fuzzyenergymanagementstrategyforelectricvehiclecombiningdrivingcycleconstructionandairconditioningloadidentification
AT limeiwang fuzzyenergymanagementstrategyforelectricvehiclecombiningdrivingcycleconstructionandairconditioningloadidentification
AT huanhuanli fuzzyenergymanagementstrategyforelectricvehiclecombiningdrivingcycleconstructionandairconditioningloadidentification
AT jufengyang fuzzyenergymanagementstrategyforelectricvehiclecombiningdrivingcycleconstructionandairconditioningloadidentification
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