In this paper, we address the issue of motion planning for the control system L R that results from the rolling without slipping nor spinning of a two dimensional Riemannian manifold M 1 onto another one M 2 . We present two procedures to tackle the motion planning problem when M 1 is a plane and M 2 a convex surface. The first approach rests on the Liouvillian character of L R . More precisely, if just one of the manifolds has a symmetry of revolution, then L R is shown to be a Liouvillian system. If, in addition, that manifold is convex and the other one is a plane, then a maximal linearizing output is explicitely computed. The second approach consists of the use of a continuation method. Even though L R admits nontrivial abnormal extrema...
We address the motion planning problem (open-loop trajectory design) for manipulating rigid bodies w...
Rolling a ball on a plane is a standard example of nonholonomy reported in many textbooks, and the p...
1 Motivation Nonholonomic mechanical systems naturally occur whenthere are rolling constraints [4] o...
In this paper, we address the issue of motion planning for the control system L R that results from ...
International audienceIn this paper, we address the issues of controllability and motion planning fo...
Rolling between rigid surfaces in space is a well-known nonholonomic system, whose mathematical mode...
Rolling between rigid surfaces in space is a well-known nonholonomic system, whose mathematical mode...
International audienceIn this paper, we consider the control system Σ defined by the rolling of a st...
Pairs of bodies with regular rigid surfaces rolling onto each other in space form a nonholonomic sys...
International audienceIn the present paper we give a historical account -ranging from classical to m...
The problem of manipulation by low-complexity robot hands is a key issue since many years. The perfo...
The problem of rolling without sliding of a homogeneous ball on a fixed surface under the action of...
We give a complete answer to the question of when two curves in two different Riemannian manifolds c...
In this paper, we consider planning motions of objects of regular shape rolling on a plane among obs...
We address the motion planning problem (open-loop trajectory design) for manipulating rigid bodies w...
Rolling a ball on a plane is a standard example of nonholonomy reported in many textbooks, and the p...
1 Motivation Nonholonomic mechanical systems naturally occur whenthere are rolling constraints [4] o...
In this paper, we address the issue of motion planning for the control system L R that results from ...
International audienceIn this paper, we address the issues of controllability and motion planning fo...
Rolling between rigid surfaces in space is a well-known nonholonomic system, whose mathematical mode...
Rolling between rigid surfaces in space is a well-known nonholonomic system, whose mathematical mode...
International audienceIn this paper, we consider the control system Σ defined by the rolling of a st...
Pairs of bodies with regular rigid surfaces rolling onto each other in space form a nonholonomic sys...
International audienceIn the present paper we give a historical account -ranging from classical to m...
The problem of manipulation by low-complexity robot hands is a key issue since many years. The perfo...
The problem of rolling without sliding of a homogeneous ball on a fixed surface under the action of...
We give a complete answer to the question of when two curves in two different Riemannian manifolds c...
In this paper, we consider planning motions of objects of regular shape rolling on a plane among obs...
We address the motion planning problem (open-loop trajectory design) for manipulating rigid bodies w...
Rolling a ball on a plane is a standard example of nonholonomy reported in many textbooks, and the p...
1 Motivation Nonholonomic mechanical systems naturally occur whenthere are rolling constraints [4] o...