Automotive design challenges for wide-band-gap devices used in high temperature capable, scalable power vehicle electronics

Andrew F. Pinkos, Yuanbo Guo
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引用次数: 16

Abstract

Magna Electronics, an automotive Tier 1 Supplier, has been actively involved in the application and production of EV and Hybrid electric drive motors, inverters, electronic, and powertrain controllers. The Ford Focus Electric vehicle program includes all of these products and stand-alone inverters for the Fisker Karma, plus assorted components for other global customers. Incorporating advanced technologies into automotive power electronics remains in the forefront for next generation inverters. Smart product development will satisfy an emerging market for achieving high power density, high temperature capability, and high efficiency inverters with Wide Band Gap (WBG) devices utilizing both GaN and SiC in diodes and switches. It is essential that designs for motor power inverters, DC/DC converters, and in-vehicle chargers be based on a modular, scalable platform that will address the needs of electric and hybrid electric vehicles across a wide range of power requirements. The designs must meet objectives which are not new but need restating: Achieve lower cost targets (lower component and system costs); Develop new component technologies to meet high temperature and high power density requirements (WBG devices, electronics, bulk capacitor); Design of components and system architecture to meet scalability goals; Improve manufacturability of sub-system components These system design challenges will trickle down to component suppliers and, in particular the WBG community. Exposure to these attributes early in the component development process will speed up innovative automotive product development.
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用于高温、可扩展功率汽车电子的宽带隙器件的汽车设计挑战
麦格纳电子是汽车一级供应商,一直积极参与电动汽车和混合动力驱动电机、逆变器、电子和动力系统控制器的应用和生产。福特福克斯电动汽车项目包括所有这些产品和Fisker Karma的独立逆变器,以及为其他全球客户提供的各种组件。将先进技术融入汽车电力电子仍然是下一代逆变器的前沿。智能产品开发将满足新兴市场对实现高功率密度,高温能力和高效率逆变器的宽带隙(WBG)器件在二极管和开关中使用GaN和SiC。电机电源逆变器、DC/DC转换器和车载充电器的设计必须基于模块化、可扩展的平台,以满足电动和混合动力汽车在各种功率要求下的需求。设计必须满足的目标不是新的,但需要重申:实现较低的成本目标(较低的组件和系统成本);开发新的组件技术,以满足高温和高功率密度的要求(WBG器件,电子,块状电容器);组件和系统架构的设计,以满足可扩展性目标;这些系统设计方面的挑战将逐渐影响到组件供应商,特别是世界银行集团。在组件开发过程中尽早了解这些属性将加快创新汽车产品的开发。
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