关于氧储存动力学的空燃比控制

Michael Tomforde, W. Drewelow, M. Schultalbers
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引用次数: 10

摘要

减少废气排放是当今汽车工程界面临的最大挑战之一。为了符合未来更严格的排放标准,必须改进空燃比控制。常用的控制概念并没有考虑到三元催化剂的储氧能力,尽管储氧状态主要影响催化剂后的废气排放。本文提出了一种基于储氧状态的空燃比控制策略。由于氧储存状态不能直接测量,控制器的一个主要组成部分是新开发的催化剂模型,该模型考虑了催化剂内氧的空间分布。提出的控制概念已经成功地在一辆配备涡轮增压、直喷汽油发动机的车辆上进行了测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Air-fuel ratio control with respect to oxygen storage dynamics
Reducing exhaust emissions is one of the biggest challenges facing the automotive engineering community today. In order to comply with future more stringent emission standards, the air-fuel ratio control must be improved. Commonly used control concepts do not account for the oxygen storage ability of the three-way catalyst, even though the storage state mainly influences post-catalyst exhaust emissions. In this paper a new air-fuel ratio control strategy based on the oxygen storage state is presented. Since the oxygen storage state can not be measured directly, a major component of the controller is a newly developed catalyst model that accounts for the spatial distribution of oxygen within the catalyst. The proposed control concept has been successfully tested on a vehicle equipped with a turbocharged, direct injection gasoline engine.
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