Uncertain, time-varying dynamic environments are ubiquitous in real world robotics. We propose an online planning framework to address time-bounded missions under time-varying dynamics, where those dynamics affect the duration and outcome of actions. We pose such problems as semi-Markov decision processes, where actions have a duration distributed according to an a priori unknown time-varying function. Our approach maintains a belief over this function, and time is propagated through a discrete search tree that efficiently maintains a subset of reachable states. We show improved mission performance on a marine vehicle simulator acting under real-world spatio-temporal ocean currents, and demonstrate the ability to solve co-safe linear tempor...
A framework capable of computing optimal control policies for a continuous system in the presence of...
An interesting class of planning domains, including planning for daily activities of Mars rovers, in...
This paper presents a strategy for planning robot motions in dynamic, uncertain environments (DUEs)....
We consider a decision-making problem where the environment varies both in space and time. Such prob...
SM thesisAutonomous robots are being considered for increasingly capable roles in our society, such ...
We introduce TiMDPpoly, an algorithm designed to solve planning problems with durative actions, unde...
This thesis addresses the question of planning under uncertainty within a time-dependent changing en...
We present a framework for analyzing and computing motion plans for a robot that operates in an envi...
This thesis is motivated by time and safety critical applications involving the use of autonomous ve...
This thesis experimentally addresses the issue of planning under uncertainty in robotics, with refer...
Abstract. This work presents a planning framework that allows a robot with stochastic action uncerta...
Due to the high complexity of probabilistic planning algorithms, roboticists often opt for determini...
Due to the high complexity of probabilistic planning algorithms, roboticists often opt for determini...
A framework capable of computing optimal control policies for a continuous system in the presence of...
An interesting class of planning domains, including planning for daily activities of Mars rovers, in...
A framework capable of computing optimal control policies for a continuous system in the presence of...
An interesting class of planning domains, including planning for daily activities of Mars rovers, in...
This paper presents a strategy for planning robot motions in dynamic, uncertain environments (DUEs)....
We consider a decision-making problem where the environment varies both in space and time. Such prob...
SM thesisAutonomous robots are being considered for increasingly capable roles in our society, such ...
We introduce TiMDPpoly, an algorithm designed to solve planning problems with durative actions, unde...
This thesis addresses the question of planning under uncertainty within a time-dependent changing en...
We present a framework for analyzing and computing motion plans for a robot that operates in an envi...
This thesis is motivated by time and safety critical applications involving the use of autonomous ve...
This thesis experimentally addresses the issue of planning under uncertainty in robotics, with refer...
Abstract. This work presents a planning framework that allows a robot with stochastic action uncerta...
Due to the high complexity of probabilistic planning algorithms, roboticists often opt for determini...
Due to the high complexity of probabilistic planning algorithms, roboticists often opt for determini...
A framework capable of computing optimal control policies for a continuous system in the presence of...
An interesting class of planning domains, including planning for daily activities of Mars rovers, in...
A framework capable of computing optimal control policies for a continuous system in the presence of...
An interesting class of planning domains, including planning for daily activities of Mars rovers, in...
This paper presents a strategy for planning robot motions in dynamic, uncertain environments (DUEs)....