基于道路工况分析的HEV控制策略优化方法

以某并联式混动公交车为研究对象,建立了四种典型工况模型,采用蚁群算法优化了最小等效燃油消耗控制策略中四种工况的充放电等效因子;分析了路面坡度与电池荷电状态(state of charge,SOC)目标值域调整之间的对应关系,设计了相应坡度自适应模块;提出了基于道路工况分析的混合动力汽车(hybrid electric vehicle,HEV)控制策略优化方法.典型工况下的仿真对比分析表明,该方法具有良好的工况适应能力,燃油经济性明显优于几类典型HEV控制策略....

Full description

Saved in:
Bibliographic Details
Published in东北大学学报(自然科学版) Vol. 38; no. 4; pp. 551 - 556
Main Author 连静 范悟明 李琳辉 袁鲁山
Format Journal Article
LanguageChinese
Published 大连理工大学汽车工程学院,辽宁 大连,116024 2017
Subjects
Online AccessGet full text
ISSN1005-3026
DOI10.3969/j.issn.1005-3026.2017.04.020

Cover

More Information
Summary:以某并联式混动公交车为研究对象,建立了四种典型工况模型,采用蚁群算法优化了最小等效燃油消耗控制策略中四种工况的充放电等效因子;分析了路面坡度与电池荷电状态(state of charge,SOC)目标值域调整之间的对应关系,设计了相应坡度自适应模块;提出了基于道路工况分析的混合动力汽车(hybrid electric vehicle,HEV)控制策略优化方法.典型工况下的仿真对比分析表明,该方法具有良好的工况适应能力,燃油经济性明显优于几类典型HEV控制策略.
Bibliography:21-1344/T
HEV(hybrid electric vehicle); driving cycle recognition; ant colony optimization; SOC target range; control strategy
Taking a parallel hybrid bus as research object,four kinds of typical working condition models were established,and the ant colony optimization algorithm was used to optimize the charge and discharge equivalent factor for each working condition in minimal equivalent fuel consumption control strategy.The relation between road gradient and adjustment of battery SOC target range was analyzed,and the corresponding gradient adaptive module was designed.A control strategy optimization method was proposed based on driving cycle recognition for HEV.The results of simulation and comparison analysis under typical working conditions showed that the method has very well driving condition adaptability,and its fuel economy is significantly higher than that of other several typical HEV control strategies.
LIAN Jing,FAN Wu-ming,LI Lin- hui,YUAN Lu-shan(School of Automotive Engineering,Dalian University
ISSN:1005-3026
DOI:10.3969/j.issn.1005-3026.2017.04.020