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Probabilistic Model Checking andS trategy Synthesis
Dave Parker

Citation
Dave Parker. "Probabilistic Model Checking andS trategy Synthesis". Talk or presentation, 28, October, 2014.

Abstract
Probabilistic model checking is an automated technique to verify whether a probabilistic system, e.g., a robot operating in an unknown environment, satisfies a temporal logic property, e.g., "the minimum probability of completing the task within 15 minutes is above 0.98". Dually, we can also synthesise, from a model and a property specification, a strategy for controlling the system in order to satisfy or optimise the property. This talk will give an overview of automated verification and strategy synthesis for probabilistic systems, and present some recent advances in this area, including: multi-objective model checking (to investigate trade-offs between several conflicting properties), extensions to stochastic game models (to model competitive or collaborative behaviour) and permissive strategy synthesis (to generate flexible and robust controllers). I will describe the tool support for these techniques, in the form of the probabilistic model checker PRISM and its extensions, and present results from the application of these techniques to examples such as robotic motion planning, dynamic power management controllers and task scheduling.

Electronic downloads

Citation formats  
  • HTML
    Dave Parker. <a
    href="http://chess.eecs.berkeley.edu/pubs/1079.html"
    ><i>Probabilistic Model Checking andS trategy
    Synthesis</i></a>, Talk or presentation,  28,
    October, 2014.
  • Plain text
    Dave Parker. "Probabilistic Model Checking andS trategy
    Synthesis". Talk or presentation,  28, October, 2014.
  • BibTeX
    @presentation{Parker14_ProbabilisticModelCheckingAndSTrategySynthesis,
        author = {Dave Parker},
        title = {Probabilistic Model Checking andS trategy Synthesis},
        day = {28},
        month = {October},
        year = {2014},
        abstract = {Probabilistic model checking is an automated
                  technique to verify whether a probabilistic
                  system, e.g., a robot operating in an unknown
                  environment, satisfies a temporal logic property,
                  e.g., "the minimum probability of completing the
                  task within 15 minutes is above 0.98". Dually, we
                  can also synthesise, from a model and a property
                  specification, a strategy for controlling the
                  system in order to satisfy or optimise the
                  property. This talk will give an overview of
                  automated verification and strategy synthesis for
                  probabilistic systems, and present some recent
                  advances in this area, including: multi-objective
                  model checking (to investigate trade-offs between
                  several conflicting properties), extensions to
                  stochastic game models (to model competitive or
                  collaborative behaviour) and permissive strategy
                  synthesis (to generate flexible and robust
                  controllers). I will describe the tool support for
                  these techniques, in the form of the probabilistic
                  model checker PRISM and its extensions, and
                  present results from the application of these
                  techniques to examples such as robotic motion
                  planning, dynamic power management controllers and
                  task scheduling.},
        URL = {http://chess.eecs.berkeley.edu/pubs/1079.html}
    }
    

Posted by Armin Wasicek on 29 Oct 2014.
Groups: chessworkshop
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