Torque control strategy with V2X information for HEVs to minimize fuel consumption
Yasutaka Okada
Shunki Nishii
Akihiro Takeshita
Kazuki Harada
Yudai Yamasaki
Department of Mechanical Engineering,The University of Tokyo,7-3-1 Hongo,Bunkyo-ku,Tokyo 113-8656,Japan
摘要:Today,much information from traffic infrastructures and sensors of ego vehicle is available.Using such information has a potential for internal combustion engine vehicle to reduce fuel consumption in real world.In this paper,a powertrain controller for a hybrid electric vehicle aiming to reduce fuel consumption is introduced,which uses information from traffic signals,the global positioning system and sensors,and the preceding vehicle.This study was carried out as a benchmark problem of engine and powertrain control simulation and modeling 2021(E-COSM 2021).The developed controller firstly decides reference acceleration of the ego vehicle using the traffic signal and the position information and the preceding vehicle speed.The acceleration and deceleration leading to increase in unnecessary fuel consumption is avoided.Next,the reference engine,generator,and motor torques are decided to achieve the reference acceleration and minimize fuel consumption.In addition,the reference engine,generator and motor torques were decided by the given fuel consumption map for the engine,and by the virtual fuel consumption maps for the generator and the motor.The virtual fuel consumption is derived from the efficiency maps of the generator and the motor using a given equivalent factor,which converts electricity consumption to fuel for the generator and the motor.In this study,a controller was designed through the benchmark problem of E-COSM 2021 for minimizing total fuel consumption of the engine,the generator,and the motor.The developed controller was evaluated in driving simulations.The result shows that operating the powertrain in efficient area is a key factor in reducing total fuel consumption.
机标关键词:informationstrategytorquecontrolwithconsumptionfuelhevs
论文发表日期:2022-01-01
在线出版日期:2025-08-15(本平台首次上网日期,不代表文献的发表时间)
页数:13( 197-209 )
英文信息展开
控制理论与技术(英文版)

控制理论与技术(英文版)

EI
ISSN:2095-6983
年,卷(期):2022,20(2)
所属栏目:RESEARCH ARTICLES