A regulatory power split strategy for energy management with battery and ultracapacitor

Sreekala Vazhakkuzhackal Mohanan, Abhilash T. Vijayan
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Abstract

Electric vehicle batteries face fast degradation due to the high frequency of charging/discharging cycles and great peak power demands. Lifetime, continuity of supply and power density of these batteries affect the performance of electric vehicles (EVs). Hybrid energy storage systems (HESS) offers a feasible solution by incorporating other energy storage elements like ultra-capacitor (UC) along with battery. Their combination provides higher efficiency and better performance in terms energy/power density. UC can behave like a power buffer when the EV is accelerating and regenerating. The HESS needs a controller that can split the available power between different sub systems as per demand. This paper presents a regulatory control strategy useful in HESS with battery and UC for the speed regulation of a brushless DC (BLDC) motor using a 3-port bidirectional DC-DC converter. The regulatory control strategy monitors the state of charge (SOC) of UC and a fuzzy logic controller regulates the power flow between HESS and the motor. Simulation in MATLAB validates the efficacy of the strategy. Simulation results and hardware evaluation confirm that the regulatory control scheme is effective in splitting the available power according to the load demand and achieves better energy efficiency.
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利用电池和超级电容器进行能源管理的功率分配调节策略
由于高频率的充电/放电循环和巨大的峰值功率需求,电动汽车电池面临着快速退化的问题。这些电池的使用寿命、供电连续性和功率密度都会影响电动汽车(EV)的性能。混合储能系统(HESS)提供了一种可行的解决方案,即在电池中加入其他储能元件,如超级电容器(UC)。它们的组合在能量/功率密度方面提供了更高的效率和更好的性能。当电动汽车加速和再生时,UC 可以起到电源缓冲器的作用。HESS 需要一个控制器,能够根据需求在不同子系统之间分配可用电能。本文介绍了一种适用于带电池和 UC 的 HESS 的调节控制策略,该策略使用 3 端口双向 DC-DC 转换器对无刷直流(BLDC)电机进行速度调节。该调节控制策略可监控 UC 的充电状态 (SOC),并由模糊逻辑控制器调节 HESS 和电机之间的功率流。在 MATLAB 中进行的仿真验证了该策略的有效性。仿真结果和硬件评估证实,调节控制方案能有效地根据负载需求分配可用功率,并实现更高的能效。
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