Plug-in Hybrid Electric Bus Variable Parameter Control Strategy Considering Influence of Driving Cycle[J]. 2017, 51(7): 130-139.
DOI:
Plug-in Hybrid Electric Bus Variable Parameter Control Strategy Considering Influence of Driving Cycle[J]. 2017, 51(7): 130-139.DOI: 10.7652/xjtuxb201707019.
Plug-in Hybrid Electric Bus Variable Parameter Control Strategy Considering Influence of Driving Cycle
To fully tap the fuel saving potential of city plug-in hybrid buses
a variable parameter control strategy according to the influence of driving cycle is proposed to achieve the reasonable distribution of vehicle power. The traffic data of 20 buses are collected and the congestion driving cycle
urban driving cycle
suburban driving cycle and comprehensive driving cycle of the urban buses are fitted with short-stroke analysis method. The vehicle control strategy key parameters of the four driving cycles in the same driving range are optimized with combinatorial optimization algorithm. The selected first three sets construct an identification database which is embedded into the fixed parameter control strategy based on the comprehensive driving cycle optimization. Euclidean distance and proximity criterion are used to judge the type of the current driving cycle in real time and automatically call the variable parameter control strategy of the optimal control parameter. The results show that in the same experimental driving cycle
the integrated fuel consumption of vehicle reduces by 5.12% compared with the fixed parameter control strategy. The rapid control pattern test indicates that the integrated fuel consumption of vehicle in comprehensive driving cycle reduces by 4.9% compared with the fixed parameter control strategy.
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references
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