Logical Time Work Modeling by Mallet Frederic (5 results)

Taschenbuch. Condition: Neu. Neuware -Logical time is a relaxed form of time promoted by synchronous languages that is functional, elastic (can be abstracted or refined), and multiform. All these properties make logical time adequate also at design time, whereas precise physical time annotations should only matter in later post-synthesis stages. The Clock Constraint Specification Language (CCSL) is a concrete language dedicated to the modeling and analysis of logical time properties. CCSL was initially defined as a companion for the time model of the UML profile for MARTE. It has now become a full-fledged domain-specific modeling language for capturing causal, chronological and timed relationships. It should complement other syntactic models to capture their underlying model of computation. This book starts by describing the historical models of concurrency that have inspired the construction of CCSL. Then, CCSL is introduced and used to build libraries dedicated to two emerging standard models from the automotive (East-ADL) and the avionic (AADL) domains. Finally, an observer-based technique to verify Esterel and VHDL implementations against CCSL specifications is presented.Books on Demand GmbH, Überseering 33, 22297 Hamburg 124 pp. Englisch.

Paperback. Condition: Like New. Like New. book.

Taschenbuch. Condition: Neu. This item is printed on demand - it takes 3-4 days longer - Neuware -Logical time is a relaxed form of time promoted by synchronous languages that is functional, elastic (can be abstracted or refined), and multiform. All these properties make logical time adequate also at design time, whereas precise physical time annotations should only matter in later post-synthesis stages. The Clock Constraint Specification Language (CCSL) is a concrete language dedicated to the modeling and analysis of logical time properties. CCSL was initially defined as a companion for the time model of the UML profile for MARTE. It has now become a full-fledged domain-specific modeling language for capturing causal, chronological and timed relationships. It should complement other syntactic models to capture their underlying model of computation. This book starts by describing the historical models of concurrency that have inspired the construction of CCSL. Then, CCSL is introduced and used to build libraries dedicated to two emerging standard models from the automotive (East-ADL) and the avionic (AADL) domains. Finally, an observer-based technique to verify Esterel and VHDL implementations against CCSL specifications is presented. 124 pp. Englisch.

Taschenbuch. Condition: Neu. nach der Bestellung gedruckt Neuware - Printed after ordering - Logical time is a relaxed form of time promoted by synchronous languages that is functional, elastic (can be abstracted or refined), and multiform. All these properties make logical time adequate also at design time, whereas precise physical time annotations should only matter in later post-synthesis stages. The Clock Constraint Specification Language (CCSL) is a concrete language dedicated to the modeling and analysis of logical time properties. CCSL was initially defined as a companion for the time model of the UML profile for MARTE. It has now become a full-fledged domain-specific modeling language for capturing causal, chronological and timed relationships. It should complement other syntactic models to capture their underlying model of computation. This book starts by describing the historical models of concurrency that have inspired the construction of CCSL. Then, CCSL is introduced and used to build libraries dedicated to two emerging standard models from the automotive (East-ADL) and the avionic (AADL) domains. Finally, an observer-based technique to verify Esterel and VHDL implementations against CCSL specifications is presented.

Condition: New. Dieser Artikel ist ein Print on Demand Artikel und wird nach Ihrer Bestellung fuer Sie gedruckt. Autor/Autorin: Mallet FredericDr. Eng. Habil. Frederic Mallet is an Associate Professor in the Computer Science department at Nice-Sophia Antipolis University. He is a member of the AOSTE research unit, a joint team between the I3S Laboratory and I.