Military Fuel Cell-Based Vehicles: Modular Power DC-DC Converter System

Walid Aboueata, A. Massoud, S. Al-Obaidi
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Abstract

Electric Vehicles (EVs) have attracted researchers’ attention to further develop and enhance this strategic area. Compared to fuel-based vehicles, EVs are more in demand nowadays due to their high performance and modern features. Integrating renewable energy sources such as PV and fuel cells to EVs expands this technology’s research area to increase system reliability. Fuel-cell electric vehicles (FCEVs) introduce more challenges to the researchers to integrate this type of renewable energy source to charge the EV battery while driving. In this paper, design and control of a modular DC-DC converter for fuel-cell based EVs has been studied. A maximum power point tracking (MPPT) technique is used to extract the FC’s maximum power. Since the FC produces a relatively low voltage, a high gain DC-DC converter is required to step up the voltage to the battery’s rated voltage. This can be achieved through an input-parallel output-series Cuk-based DC-DC converter. The system small-signal model and control are presented to ensure equal current sharing at the input side while maintaining equal output voltage sharing even with a mismatch in the system module. The presented concept has been elucidated through simulation using Matlab/Simulink platform.
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军用燃料电池车辆:模块化电源DC-DC变换器系统
电动汽车(ev)已经引起了研究人员的关注,以进一步发展和加强这一战略领域。与燃油汽车相比,电动汽车由于其高性能和现代化的特点而受到更大的需求。将光伏和燃料电池等可再生能源集成到电动汽车中,扩大了该技术的研究领域,从而提高了系统的可靠性。燃料电池电动汽车(fcev)给研究人员带来了更多的挑战,即在行驶时将这种可再生能源整合到电动汽车电池中。本文对燃料电池电动汽车的模块化DC-DC变换器的设计与控制进行了研究。最大功率点跟踪(MPPT)技术用于提取FC的最大功率。由于FC产生的电压相对较低,因此需要高增益DC-DC转换器将电压提升到电池的额定电压。这可以通过一个输入并联输出串联的基于cuk的DC-DC变换器来实现。提出了系统的小信号模型和控制方法,以保证在输入端电流相等的同时,即使在系统模块失配的情况下也能保持输出电压相等的共享。通过Matlab/Simulink仿真平台对所提出的概念进行了阐述。
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