An Integrated Approach for Estelle-based Protocol Verification

碩士 === 國立成功大學 === 資訊工程研究所 === 81 === Global state reachability analysis is one of the most straight- forward ways to detect logical errors in communication protocols specified in the state-transition model. To resolve the state explosion pr...

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Bibliographic Details
Main Authors: Pong Jao Chiang, 彭兆強
Other Authors: Huang Chung Ming
Format: Others
Language:zh-TW
Published: 1993
Online Access:http://ndltd.ncl.edu.tw/handle/37727607927358900174
Description
Summary:碩士 === 國立成功大學 === 資訊工程研究所 === 81 === Global state reachability analysis is one of the most straight- forward ways to detect logical errors in communication protocols specified in the state-transition model. To resolve the state explosion problem in the global state reachability analysis, many global state reduction techniques have been proposed in the past decade. Since context variables are not considered in most of currently proposed global state reduction techniques and verification methods, these reduction techniques and verification methods cannot be directly applied to verify ECFSM-based protocols. In this thesis, we propose an integrated ECFSM-based state exploration techniqe which integrates ECFSM- based fair progress state exploration, ECFSM-based multiple event one transition state exploration, an ECFSM-based incremental verification technique, and the concept of dead and live variables introduced by Chu and Liu, to have a new verification technique for ECFSM-based protocols. Using the integrated ECFSM-based state exploration technique, we have developed an Integrated Estelle-based Incremental Protocol Verification System (IEIPVS) in a SUN SPARC 10 workstation. IEIPVS consists of three main components, i.e., the Estelle interpreter, global state analyzer based on the integrated ECFSM-based state exploration for exploring stable/unstable global states, and the incremental verification processor. With a friendly graphical user interface provided in IEIPVS, prototol designers can interactively specify and incrementally verify protocols with our proposed global state reduction technique.