This paper describes a method of modeling the motion uncertainty of moving obstacles and its application to mo-bile robot motion planning. The method explicitly consid-ers three sources of uncertainty: path ambiguity, velocity uncertainty, and observation uncertainty. The uncertainty model represents the position of an obstacle at a certain time point by a probabilistic distribution over possible po-sitions on each possible path of the moving obstacle. Using this model, the best robot motion is selected in a decision-theoretic way. By considering not the range but the dis-tribution of the uncertainty, more efficient behaviors of the robot are realized
International audienceThis paper addresses the problem of planning the motions of a circular mobile ...
Robot control systems are subject to significant uncertainty and error. Typical robots are also eq...
Abstract — We introduce a resolution-optimal path planner that considers uncertainty while optimizin...
This paper proposes a path-planning method for mobile robots in the presence of uncertainty. We anal...
We present a probabilistic method for sensor based robotic navigation in dynamic and noisy environme...
An approach to motion planning among moving obstacles is presented, whereby obstacles are modeled as...
A method for modeling uncertainties that exist in a robotic system, based on stochastic differential...
We present a probabilistic method for noisy sensor based robotic navigation in dynamic environments....
Many existing path planning methods do not adequately account for uncertainty. Without uncertainty t...
Obstacle avoidance, and by extension collision checking, is a basic requirement for robot autonomy....
We present a probabilistic method for noisy sensor based robotic navigation in dynamic environments....
Robots must successfully plan and execute tasks in the presence of uncertainty. Uncertainty arises...
To guarantee safe motion planning, the underlying path planning algorithm must consider motion uncer...
The purpose of the work is to assess the performance and further improve a solution to the problem o...
Robots must plan and execute tasks in the presence of uncertainty. Uncertainty arises from sensing ...
International audienceThis paper addresses the problem of planning the motions of a circular mobile ...
Robot control systems are subject to significant uncertainty and error. Typical robots are also eq...
Abstract — We introduce a resolution-optimal path planner that considers uncertainty while optimizin...
This paper proposes a path-planning method for mobile robots in the presence of uncertainty. We anal...
We present a probabilistic method for sensor based robotic navigation in dynamic and noisy environme...
An approach to motion planning among moving obstacles is presented, whereby obstacles are modeled as...
A method for modeling uncertainties that exist in a robotic system, based on stochastic differential...
We present a probabilistic method for noisy sensor based robotic navigation in dynamic environments....
Many existing path planning methods do not adequately account for uncertainty. Without uncertainty t...
Obstacle avoidance, and by extension collision checking, is a basic requirement for robot autonomy....
We present a probabilistic method for noisy sensor based robotic navigation in dynamic environments....
Robots must successfully plan and execute tasks in the presence of uncertainty. Uncertainty arises...
To guarantee safe motion planning, the underlying path planning algorithm must consider motion uncer...
The purpose of the work is to assess the performance and further improve a solution to the problem o...
Robots must plan and execute tasks in the presence of uncertainty. Uncertainty arises from sensing ...
International audienceThis paper addresses the problem of planning the motions of a circular mobile ...
Robot control systems are subject to significant uncertainty and error. Typical robots are also eq...
Abstract — We introduce a resolution-optimal path planner that considers uncertainty while optimizin...