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Development of Fuel Economy Improvement by Using Driving Condition Prediction System for Hybrid Vehicle

机译:利用混合动力车辆驱动条件预测系统,开发燃料经济性改进

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If the future driving condition such as road information and traffic condition can be predicted, the use of electrical power source will be controlled appropriately in order to improve the fuel economy of Hybrid vehicle. In this paper the algorithm for the driving condition prediction model and the rule-based controller for HEV are developed and verified through simulation and road test. With road information and traffic from 3D navigation, the types of road (uphill, flat or downhill) and the traffic condition (congestion or free driving) can be predicted by the Driving Condition Prediction System (DCPS). The rule-based controller for HEV can determine the control strategy (discharge-oriented, charge-oriented, or normal) depending on the future driving condition. With this technology the system can secure more battery capacity for regenerating when downhill is anticipated and engine can be operated within high efficiency area by discharging battery energy when uphill is anticipated. When congestion is predicted the battery is charged in advance in order to increase electric driving (EV) range and prevent inefficient series-path driving. Compared to the previous study, the methodology to determine future road condition and control strategy of HEV suggested in this paper is simple and fast enough to apply to real-time controller.
机译:如果可以预测未来的道路信息和交通状况的驾驶条件,则将适当地控制电源的使用,以改善混合动力车辆的燃料经济性。本文通过仿真和道路测试开发和验证了驾驶条件预测模型和基于规则的HEV控制器的算法。通过从3D导航的道路信息和流量,可以通过驱动条件预测系统(DCP)来预测道路信息(上坡,平坦或下坡)和交通状况(拥塞或自由驾驶)。对于HEV的规则基于规则的控制器可以根据未来的驾驶条件确定控制策略(面向放电导向,指向或正常)。利用这种技术,系统可以在预期下坡时,系统可以确保更高的再生能力,并且在预期上坡时,通过放电电池能量可以在高效率区域内运行发动机。当预测拥塞时,预先充电电池以增加电动驱动(EV)范围并防止低效串行路径驱动。与以前的研究相比,本文建议的HEV的未来道路状况和控制策略的方法简单且足够快,以适用于实时控制器。

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