Design Validation of Multi-mode Systems

Cyber-Physical Systems(CPS) are a group of systems that are involved with both physical processes and computational processes. The interaction of physical components and computational components makes it difficult to analyze, design and verify this type of systems. The problem becomes more complex w...

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Main Author: Chu, Diyang
Other Authors: Sprinkle, Jonathan
Language:en_US
Published: The University of Arizona. 2013
Subjects:
Online Access:http://hdl.handle.net/10150/311576
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spelling ndltd-arizona.edu-oai-arizona.openrepository.com-10150-3115762015-10-23T05:29:36Z Design Validation of Multi-mode Systems Chu, Diyang Sprinkle, Jonathan Sprinkle, Jonathan Sanfelice, Ricardo Ramasabramanian, Srinivasan Multi-mode Electrical & Computer Engineering Hybrid System Cyber-Physical Systems(CPS) are a group of systems that are involved with both physical processes and computational processes. The interaction of physical components and computational components makes it difficult to analyze, design and verify this type of systems. The problem becomes more complex when certain input or decision of these systems must be initiated by human. Cyber-Physical Systems with human operator in the loop are called Embedded Human Systems(EHS). To ensure the safety of EHS such as traffic control systems, space shuttle control systems, nuclear power plant control systems and so on, it is critically important for human operators to fully understand both physical and computational processes. However, humans are usually easily overwhelmed by concurrent information, the situation becomes worse when it comes to complex EHS with timing constraints.This dissertation proposes a domain specific modeling language that takes advantage of hybrid system abstraction to retain important system behaviors and automatically generates self-configured system verification software. The verification software could effectively reduce the computation time with parallel scheduling algorithm, thus the computation process that violates the design protocol can be halted without wasting computation resources. The modeling environment also allows user to conveniently set design constraints to avoid flaws early in prototype phase and reuse the available model for a family of different platforms. Several verification results of different platforms are shown to demonstrate the efficiency and reusability of the modeling environment. 2013 text Electronic Dissertation http://hdl.handle.net/10150/311576 en_US Copyright © is held by the author. Digital access to this material is made possible by the University Libraries, University of Arizona. Further transmission, reproduction or presentation (such as public display or performance) of protected items is prohibited except with permission of the author. The University of Arizona.
collection NDLTD
language en_US
sources NDLTD
topic Multi-mode
Electrical & Computer Engineering
Hybrid System
spellingShingle Multi-mode
Electrical & Computer Engineering
Hybrid System
Chu, Diyang
Design Validation of Multi-mode Systems
description Cyber-Physical Systems(CPS) are a group of systems that are involved with both physical processes and computational processes. The interaction of physical components and computational components makes it difficult to analyze, design and verify this type of systems. The problem becomes more complex when certain input or decision of these systems must be initiated by human. Cyber-Physical Systems with human operator in the loop are called Embedded Human Systems(EHS). To ensure the safety of EHS such as traffic control systems, space shuttle control systems, nuclear power plant control systems and so on, it is critically important for human operators to fully understand both physical and computational processes. However, humans are usually easily overwhelmed by concurrent information, the situation becomes worse when it comes to complex EHS with timing constraints.This dissertation proposes a domain specific modeling language that takes advantage of hybrid system abstraction to retain important system behaviors and automatically generates self-configured system verification software. The verification software could effectively reduce the computation time with parallel scheduling algorithm, thus the computation process that violates the design protocol can be halted without wasting computation resources. The modeling environment also allows user to conveniently set design constraints to avoid flaws early in prototype phase and reuse the available model for a family of different platforms. Several verification results of different platforms are shown to demonstrate the efficiency and reusability of the modeling environment.
author2 Sprinkle, Jonathan
author_facet Sprinkle, Jonathan
Chu, Diyang
author Chu, Diyang
author_sort Chu, Diyang
title Design Validation of Multi-mode Systems
title_short Design Validation of Multi-mode Systems
title_full Design Validation of Multi-mode Systems
title_fullStr Design Validation of Multi-mode Systems
title_full_unstemmed Design Validation of Multi-mode Systems
title_sort design validation of multi-mode systems
publisher The University of Arizona.
publishDate 2013
url http://hdl.handle.net/10150/311576
work_keys_str_mv AT chudiyang designvalidationofmultimodesystems
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