The goal of this paper is to translate (fragments of) the quantified discrete duration calculus QDDC, proposed by P. Pandya, into symbolic acceptors with counters. Ac-ceptors are written in the synchronous programming language Lustre, in order to allow available symbolic verification tools (model-checkers, abstract interpreters) to be applied to properties expressed in QDDC. We show that important constructs of QDDC need non-deterministic acceptors, in order to be translated with a bounded number of counters, and an expressive fragment of the logic is identified and trans-lated. Then, we consider a more restricted fragment, which only needs deterministic acceptors
Abstract. We present an algebraic semantics for Duration Calculus based on semirings and quantales. ...
The duration calculus (DC) is a formal, algebraic system for specification and design of realtime sy...
In this paper, we symbolically represent timed discrete-event systems (TDES), which can be used to e...
AbstractThe goal of this paper is to translate (fragments of) the quantified discrete duration calcu...
International audienceThe goal of this paper is to translate (fragments of) the quantified discrete ...
QDDC is a logic for specifying quantitative timing properties of reactive systems. An automata theor...
AbstractQDDC is a logic for specifying quantitative timing aspects of synchronous programs. Properti...
AbstractQuantified Discrete-time Duration Calculus, (QDDC), is a form of interval temporal logic [14...
The extension of the Duration Calculus (DC) by iteration, which is also known as Kleene star, enable...
AbstractThe extension of the duration calculus (DC) by iteration, which is also known as Kleene star...
Model checking of real-time systems with respect to Duration Calculus (DC) specifications requires ...
Fränzle and Hansen investigated the model-checking problem of the subset of Duration Calculus withou...
Abstract. Model checking of real-time systems with respect to Duration Calculus (DC) specifications ...
We define a new temporal logic called CTL[k-QDDC]. It extends CTL with the ability to specify branch...
The duration calculus (DC) is a formal, algebraic system for specification and design of realtime sy...
Abstract. We present an algebraic semantics for Duration Calculus based on semirings and quantales. ...
The duration calculus (DC) is a formal, algebraic system for specification and design of realtime sy...
In this paper, we symbolically represent timed discrete-event systems (TDES), which can be used to e...
AbstractThe goal of this paper is to translate (fragments of) the quantified discrete duration calcu...
International audienceThe goal of this paper is to translate (fragments of) the quantified discrete ...
QDDC is a logic for specifying quantitative timing properties of reactive systems. An automata theor...
AbstractQDDC is a logic for specifying quantitative timing aspects of synchronous programs. Properti...
AbstractQuantified Discrete-time Duration Calculus, (QDDC), is a form of interval temporal logic [14...
The extension of the Duration Calculus (DC) by iteration, which is also known as Kleene star, enable...
AbstractThe extension of the duration calculus (DC) by iteration, which is also known as Kleene star...
Model checking of real-time systems with respect to Duration Calculus (DC) specifications requires ...
Fränzle and Hansen investigated the model-checking problem of the subset of Duration Calculus withou...
Abstract. Model checking of real-time systems with respect to Duration Calculus (DC) specifications ...
We define a new temporal logic called CTL[k-QDDC]. It extends CTL with the ability to specify branch...
The duration calculus (DC) is a formal, algebraic system for specification and design of realtime sy...
Abstract. We present an algebraic semantics for Duration Calculus based on semirings and quantales. ...
The duration calculus (DC) is a formal, algebraic system for specification and design of realtime sy...
In this paper, we symbolically represent timed discrete-event systems (TDES), which can be used to e...