Combined component swapping modularity for a VCT engine controller

Date
2010
Advisor
Instructor
Source Title
ASME 2009 Dynamic Systems and Control Conference
Print ISSN
Electronic ISSN
Publisher
ASME
Volume
2
Issue
Pages
1185 - 1192
Language
English
Type
Conference Paper
Journal Title
Journal ISSN
Volume Title
Abstract

The use of bi-directional communication provides additional design freedom which can be used to maximize the swapping modularity of networked smart components. In this paper, application of a design method for combined swapping modularity of two or more system components is discussed. Development of measures for combined swapping modularity is important to be able to analyze more realistic engineering cases. The combined modularity problem is a more difficult problem compared to the individual component swapping modularity problem. First, two approaches (simultaneous and sequential) for combining component swapping modularity of two or more components are presented. Then these combined modularity approaches are used to design controllers which maximize the component-swapping modularity of the Variable Camshaft Timing (VCT) component (i.e. actuator and sensor) and the Exhaust Gas Oxygen (EGO) sensor for an internal combustion engine. Copyright © 2009 by ASME.

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Book Title
Keywords
Bi-directional communication, Design controllers, Design freedom, Design method, Engine controller, Exhaust gas oxygens, Individual components, System components, Variable camshaft timings, Design, Dynamical systems, Internal combustion engines, Oxygen, Sensors, Controllers
Citation
Published Version (Please cite this version)