Reasoning about Implicit Invocation
Jurgen Dingel,
David Garlan, Somesh Jha and David Notkin.
In Proceedings of the Sixth International Symposium on the Foundations of Software Engineering (FSE-6), Lake Buena Vista, Florida, November 1998.
Online links: ![PS](images/ps.gif)
Abstract
Implicit invocation has become an important architectural style for large-scale system design and evolution. This paper addresses the lack of specication and verication formalisms for such systems. Based on standard notions from process algebra and trace semantics, we dene a formal computational model for implicit invocation. A verication methodology is presented that supports linear time temporal logic and compositional reasoning. First, the entire system is partioned into groups of components (methods) that behave independently. Then, local properties are proved for each of the groups. A precise description of the cause and the eect of an event supports this step. Using local correctness, independence of groups, and properties of the delivery of events, we infer the desired property of the overall system. Two detailed examples illustrate the use of our framework. |
Keywords: Formal Methods, Implicit Invocation, Model Checking, Software Architecture.
@InProceedings{Dingel1998,
AUTHOR = {Dingel, Jurgen and Garlan, David and Jha, Somesh and Notkin, David},
TITLE = {Reasoning about Implicit Invocation},
YEAR = {1998},
MONTH = {November},
BOOKTITLE = {Proceedings of the Sixth International Symposium on the Foundations of Software Engineering (FSE-6)},
ADDRESS = {Lake Buena Vista, Florida},
PDF = {http://www.cs.cmu.edu/afs/cs/project/able/ftp/implinvoc-fse98/implinvoc-fse98.pdf},
PS = {http://www.cs.cmu.edu/afs/cs/project/able/ftp/implinvoc-fse98/implinvoc-fse98.ps},
ABSTRACT = {Implicit invocation has become an important architectural style for large-scale system design and evolution. This paper addresses the lack of specication and verication formalisms for such systems. Based on standard notions from process algebra and trace semantics, we dene a formal computational model for implicit invocation. A verication methodology is presented that supports linear time temporal logic and compositional reasoning. First, the entire system is partioned into groups of components (methods) that behave independently. Then, local properties are proved for each of the groups. A precise description of the cause and the eect of an event supports this step. Using local correctness, independence of groups, and properties of the delivery of events, we infer the desired property of the overall system. Two detailed examples illustrate the use of our framework. },
KEYWORDS = {Formal Methods, Implicit Invocation, Model Checking, Software Architecture} }
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