Research on control for regenerative braking of electric vehicle

Bing-gang Cao, Zhifeng Bai, Wei Zhang
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引用次数: 63

Abstract

The limitation of driving range is the key restriction for the development of EV (electric vehicle), and regenerative braking is an effective approach to extend the driving range of electric vehicle. To protect the battery from broken caused by large charging current during regenerative braking, the control strategy that makes the charging current as control object is proposed in this paper. To ensure the robustness of the closed-loop system under the presence of uncertainties, such as parameter perturbation and unknown model dynamics, and to minimize the effect of disturbance, such as the variation of the voltage of battery, state of the road, and the driving profile of vehicle, the design of controllers for regenerative braking is transformed into the weighted mixed-sensitivity problem, and the H infin robust controller for regenerative braking is designed. Finally, experimental researches on XJTUEV-1 under different driving modes are performed. The experimental results show that Hinfin robust controller is prior to the traditional PI controller in both steady-state tracking error and the key restriction for the development of EV (electric vehicle), and regenerative braking is an effective approach to extend the driving range of electric vehicle. To protect the battery from broken caused by large charging current during regenerative braking, the control strategy that makes the charging current as control object is proposed in this paper. To ensure the robustness of the closed-loop system under the presence of uncertainties, such as parameter perturbation and unknown model dynamics, and to minimize the effect of disturbance, such as the variation of the voltage of battery, state of the road, and the driving profile of vehicle, the design of controllers for regenerative braking is transformed into the weighted mixed-sensitivity problem, and the H infin robust controller for regenerative braking is designed. Finally, experimental researches on XJTUEV-I under different driving modes are performed. The experimental results show that Hinfin robust controller is prior to the traditional PI controller in both steady-state tracking error and response speed. Additionally the Hinfin robust controller for regenerative braking can recover more energy than PI controller during the EV braking
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电动汽车再生制动控制研究
续驶里程的限制是制约电动汽车发展的关键问题,再生制动是提高电动汽车续驶里程的有效途径。为了防止蓄电池在再生制动过程中因充电电流过大而损坏,提出了以充电电流为控制对象的控制策略。为保证闭环系统在参数摄动、模型动力学未知等不确定性存在下的鲁棒性,并将电池电压、道路状态、车辆行驶轮廓等扰动的影响最小化,将再生制动控制器设计转化为加权混合灵敏度问题,设计了H∞再生制动鲁棒控制器。最后,对XJTUEV-1进行了不同驱动模式下的实验研究。实验结果表明,hininfin鲁棒控制器在稳态跟踪误差和制约电动汽车发展的关键因素上均优于传统PI控制器,再生制动是延长电动汽车续驶里程的有效途径。为了防止蓄电池在再生制动过程中因充电电流过大而损坏,提出了以充电电流为控制对象的控制策略。为保证闭环系统在参数摄动、模型动力学未知等不确定性存在下的鲁棒性,并将电池电压、道路状态、车辆行驶轮廓等扰动的影响最小化,将再生制动控制器设计转化为加权混合灵敏度问题,设计了H∞再生制动鲁棒控制器。最后,对xjtuev - 1进行了不同驱动模式下的实验研究。实验结果表明,Hinfin鲁棒控制器在稳态跟踪误差和响应速度上都优于传统PI控制器。此外,在电动汽车制动过程中,hinin鲁棒再生制动控制器比PI控制器能回收更多的能量
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