Optimal Energy Management for Dual Motor Planetary Coupled PHEV Based on Multi-Objective Compensation Factor[J]. 2019, 53(3): 125-134.
DOI:
Optimal Energy Management for Dual Motor Planetary Coupled PHEV Based on Multi-Objective Compensation Factor[J]. 2019, 53(3): 125-134.DOI: 10.7652/xjtuxb201903018.
Optimal Energy Management for Dual Motor Planetary Coupled PHEV Based on Multi-Objective Compensation Factor
To improve the control effect of the instantaneous equivalent fuel consumption minimization strategy(ECMS)
taking fuel economy of a new type dual-motor planetary coupled plug-in hybrid electric vehicle(PHEV)as the research target
and based on the coupling mechanism between multiple power sources in planetary gear mechanism
an adaptive ECMS algorithm for the equivalent factors is presented. On this basis
the influences of vehicle initial state of charge(SOC)and driving mileage on the fuel-electricity equivalent factor is further studied
and the off-line genetic optimization of the equivalent factor is performed to obtain the Map of the compensation value for fuel-electricity equivalent factor. The genetically optimized adaptive ECMS energy management strategy based on the Map of the optimal equivalent factor is proposed. Hardware-in-loop simulation experiments are conducted and the results show that compared with the traditional ECMS and A-ECMS
the proposed GA-ECMS algorithm reduces fuel consumption by 6.5% and 3.4%
respectively. The results of HiL experiment and simulation are basically consistent
which verifies the feasibility and effectiveness of the proposed energy management strategy. It also provides a theoretical basis for making power allocation strategy for different vehicle initial SOCs and driving mileage.
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