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arXiv · 1805.11676

Process Algebraic Architectural Description Languages: Generalizing Component-Oriented Mismatch Detection in the Presence of Nonsynchronous Communications

Marco Bernardo·Edoardo Bontà·Alessandro Aldini
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Abstract

In the original paper, we showed how to enhance the expressiveness of a typical process algebraic architectural description language by including the capability of representing nonsynchronous communications. In particular, we extended the language by means of additional qualifiers enabling the designer to distinguish among synchronous, semi-synchronous, and asynchronous ports. Moreover, we showed how to modify techniques for detecting coordination mismatches such as the compatibility check for star topologies and the interoperability check for cycle topologies, in such a way that those two checks are applicable also in the presence of nonsynchronous communications. In this addendum, we generalize those results by showing that it is possible to verify in a component-oriented way an arbitrary property of a certain class (not only deadlock) over an entire architectural type having an arbitrary topology (not only stars and cycles) by considering also behavioral variations, exogenous variations, endogenous variations, and multiplicity variations, so to deal with the possible presence of nonsynchronous communications. The proofs are at the basis of some results mentioned in the book "A Process Algebraic Approach to Software Architecture Design" by Alessandro Aldini, Marco Bernardo, and Flavio Corradini, published by Springer in 2010.

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Marco Bernardo, Edoardo Bontà, Alessandro Aldini. 2018-05-05. Process Algebraic Architectural Description Languages: Generalizing Component-Oriented Mismatch Detection in the Presence of Nonsynchronous Communications. https://arxiv.org/abs/1805.11676

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