Titlebook: Software-Intensive Systems and New Computing Paradigms; Challenges and Visio Martin Wirsing,Jean-Pierre Banâtre,Axel Rauschmaye Book 2008 S

Interdict

cravat

Behaviour Equivalences in Timed Distributed ,-Calculusarbed bisimulation, timed (global) barbed bisimulations, timed (global) typed barbed bisimulation and full timed global typed barbed bisimulation. These bisimulations form a lattice according to their distinguishing power.

Ascendancy

PON

Design of Complex Cyber Physical Systems with Formalized Architectural Patternsis to embody design rules of this complexity-control nature in highly reusable, very robust, and formally verified architectural patterns. We discuss some preliminary work and experiments illustrating how this can be done for CPS systems.

Respond

Emerging Models of Computation: Directions in Molecular Computingbeing silicon, and the dominant technology CMOS. Relentless miniaturization has been decreasing feature size and increasing both the operating frequency and the number of elements per chip, giving rise to so-called Moore’s law (which we interpret broadly to mean the expectation of an exponential improvement in salient performance parameters).

柏树

Engineering of Software-Intensive Systems: State of the Art and Research Challengesntain them. This chapter gives an overview of the state of the art of building software-intensive systems and outlines research challenges that have been identified by the InterLink working group “software-intensive systems and new computing paradigms”.

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沙文主义

Change-Enabled Software Systemsinteracting with components from many other systems. Adaptation, reconfiguration and evolution are normal, ongoing processes throughout the lifecycle of a software system. Nevertheless the platforms, tools and environments we use to develop software are still largely based on an outmoded model that

出血

黄油没有

Design of Complex Cyber Physical Systems with Formalized Architectural Patternsme nature. We propose a novel paradigm, based on the idea of using simplicity to control complexity, to achieve highly reliable CPS designs. The goal is to embody design rules of this complexity-control nature in highly reusable, very robust, and formally verified architectural patterns. We discuss