2007 · 15 citations · 14 references
EngineeringMechanical EngineeringRobotics EngineeringMotion PlanningPath PlanningRoboticsDexterous ManipulationLegged Robot ControlManipulation ControlRobot ManipulationRobot Motion PlanningTrajectory GenerationManipulationMotion ConstraintsMotion Planning For ManipulationNonholonomic SystemsPivotingRobot Motion ControlRobot Path PlanningTrajectory Planning
Pivoting manipulation has such advantages as dexterity and safety over other methods to move bulky or heavy objects. In this paper we aim to show that a polyhedral object can be displaced to arbitrary position and orientation on a plane (i.e. such a pivoting system is controllable). More than that we show it is small time controllable, i.e. the reachable space from a starting point contains always a neighbor no matter how cluttered the environment is. As a consequence of this analysis, we propose a steering method to plan a manipulation path to be performed by a humanoid robot: first we use a classical nonholonomic path planner that accounts for the robot motion constraints, and then we transform that path into a sequence of pivoting operations. While the feasibility of elementary pivoting tasks has been already experienced by the humanoid robot HRP-2, we present here the very first simulations of the plans generated by our steering method.
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