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Platform-Independent Debugging of Physical Interaction and Signal Flow Models

Published

Author(s)

Mehdi Dadfarnia, Raphael Barbau

Abstract

Systems engineering tools are used to organize development activities of a wide variety ofen gineers, many of which develop their own discipline-specific simulation models. To increase the efficiency of this process, systems modeling tools have been extended to represent physical interactions and signal flows that can be translated to simulation tools and executed. Sometimes these simulation models fail to execute or produce unexpected execution results. It is helpful to identify causes of these problems in earlier stages of system model development, before they propagate to fully-developed simulation models. Debugging physical interaction models is difficult because their execution is bidirectional between system components. This paper gives an overview of debugging procedures for physical interactions and (unidirectional) signal flows in platform independent systems models that integrate with domain-specific simulation models. These procedures identify system model causes of simulation execution failure or incorrect simulation results.
Conference Dates
April 8-11, 2019
Conference Location
Orlando, FL
Conference Title
The 13th Annual IEEE International Systems Conference

Keywords

SysML, debugging, modeling, simulation, lumped parameter, equation-based languages

Citation

Dadfarnia, M. and Barbau, R. (2019), Platform-Independent Debugging of Physical Interaction and Signal Flow Models, The 13th Annual IEEE International Systems Conference, Orlando, FL, [online], https://doi.org/10.1109/SYSCON.2019.8836890 (Accessed April 19, 2024)
Created September 16, 2019, Updated February 24, 2020