太阳能电动车混合电源系统的智能功率分配策略

P. Vishnu Sidharthan, Yashwant Kashyap
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引用次数: 1

摘要

在最近的交通场景中,纯电动汽车(BEV)的技术发展受到了极大的关注。内燃机汽车由于其对环境、燃料成本和可用性的影响而面临着几个问题。这使得汽车行业的趋势转向了电动汽车。然而,纯电动汽车在不同的行驶条件下几乎没有遇到里程焦虑和电池寿命耗尽的问题。超级电容器(SC)与电池相结合是解决这些日益严重的问题的正确方法。研究了太阳能电动汽车电池- sc混合电源系统的能量管理问题。SC处理突然的功率变化在不同的驱动负载需求和太阳辐照度。提出的模糊逻辑功率分配策略在不同的驱动和环境因素下,提高了电池寿命,提高了电源性能,降低了电池峰值电流。MATLAB/Simulink仿真结果验证了SC集成降低电池应力的意义。在全球统一轻型车辆测试程序(WLTP)中,与纯电动汽车和混合动力传统策略相比,该策略的电池寿命分别提高了43%和20%。在本工作中,考虑了不同的驾驶条件和环境条件,以证明所提出的策略的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Intelligent Power Allocation Strategy of Hybrid Source System in Solar Electric Vehicle
Technological developments in Battery electric vehicles (BEV) gains the utmost attention in recent transportation scenarios. Internal Combustion Engine (ICE) vehicles are facing several issues due to their effects on the environment, fuel cost, and availability. This shifts the automotive trends towards Electric Vehicles (EV). However, BEV faces few problems on range anxiety and battery life depletion for varying driving conditions. Supercapacitor (SC) coupled with batteries is the right solution for these rising problems. This paper focuses on the energy management of a battery-SC Hybrid Source System for a Solar Electric Vehicle (SEV). SC handles sudden power variations during varying driving load demands and solar irradiance. The proposed fuzzy logic power allocation strategy achieves improved battery life, source performances, and reduced battery peak currents for different driving and environmental factors. MATLAB/Simulink simulation results verify the significance of the integration of SC by reducing the battery stresses. The proposed strategy improves the battery longevity by 43% and 20% compared to BEV and hybrid conventional strategy respectively for a Worldwide Harmonized Light-duty Vehicles Test Procedure (WLTP) driving profile. Different driving conditions are considered in this work with varying driving and environmental conditions to prove the effectiveness of the proposed strategy.
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