Development of BLDC motor drive for automotive applications

Joon-Sung Park, B. Gu, Jin-Hong Kim, Jun-Hyuk Choi, I. Jung
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引用次数: 7

Abstract

In order to save resources and prevent global warming, there has been a pressing need in recent years to reduce the volume of CO2 emissions, and to improve the fuel consumption of automobiles. Due to environmental concerns, the recent regulation on automobile fuel economy has been strengthened. The market demand for efficient vehicles is growing and automakers to improve engine fuel efficiency in the industry have been paying a lot of effort. Under these circumstances, the mechanical parts in the automobile industry are being replaced by electronic methods. In this paper, authors introduce two methods. First method is water pump. Especially, to improve vehicle engine efficiency, power transmission and around the field of devices according to driving conditions need to be properly cooled. Conventional mechanical water pump is directly connected by the engine belt. For this reason, regardless of coolant circulation, the conventional mechanical water pump is always operated. However, the electric water pump can be operated only when needed through the proper motor speed control. The way which the mechanical water pump is replaced by electric water pump could reduce energy consumption. Second method is VVA (Variable Valve Actuation) technology. To improve the fuel efficiency, it is necessary to reduce losses or to improve combustion efficiency of the engine. VVA technology enhances the engine's intake air flow, reduce pumping losses and mechanical friction losses. And also, VVA technology is the engine's low speed and high speed operation to implement each of appropriate valve lift. It improves the performance of engine in the entire operating range. This paper presents a design procedure of drive for water pump and VVA system and shows the validity of the result by experimental result with prototype.
开发无刷直流电机驱动的汽车应用
为了节约资源和防止全球变暖,近年来迫切需要减少二氧化碳的排放量,提高汽车的燃料消耗。由于对环境的关注,最近加强了对汽车燃油经济性的监管。市场对节能型汽车的需求日益增长,汽车制造商为提高发动机燃油效率在业内一直付出了很大的努力。在这种情况下,汽车工业中的机械部件正在被电子方法所取代。本文介绍了两种方法。第一种方法是水泵。特别是,为了提高汽车发动机的效率,动力传动和周围的现场装置需要根据行驶情况进行适当的冷却。常规机械水泵由发动机皮带直接连接。因此,无论冷却液循环如何,常规机械水泵总是运行。但是,电动水泵只能在需要时通过适当的电机转速控制才能运行。用电动水泵代替机械水泵可以降低能耗。第二种方法是VVA(可变阀门执行)技术。为了提高燃油效率,必须减少损失或提高发动机的燃烧效率。VVA技术提高了发动机的进气流量,减少了泵送损失和机械摩擦损失。而且,VVA技术是发动机在低速和高速运行时实现各适当气门升程的技术。它提高了发动机在整个工作范围内的性能。本文介绍了水泵和VVA系统驱动的设计过程,并通过样机实验验证了设计结果的正确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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