We present a steering algorithm for regular - i.e., without singularities - nonholonomic systems which are not required to possess special properties such as flatness or exact nilpotentizability. The method makes use of local steering laws, with suitable contraction properties, designed on the basis of a continuous approximation of the system. The algorithm is amenable to extension to systems with singularities. © 2005 IEEE
The authors present a control law for globally asymptotically stabilizing a class of controllable no...
Existing methods for nonholonomic feedback stabilization can only be applied to exactly nilpotentiza...
We propose a general strategy for solving the motion planning problem for real analytic, controllabl...
International audienceIn this paper, we extend the globally convergent steering algorithm for regula...
In this paper, we present an iterative steering algorithm for nonholonomic systems (also called drif...
In this paper, we present an iterative steering algorithm for nonholonomic systems (also called drif...
In this paper we derive control algorithms for a class of dynamic nonholonomic steering problems, ch...
Abstract—We present a framework for the stabilization of non-holonomic systems that do not possess s...
This paper proposes a simple numerical technique for the steering of arbitrary analytic systems with...
Abstract — This paper proposes a simple numerical technique for the steering of arbitrary analytic s...
We present a framework for the stabilization of nonholonomic systems that do not possess special pro...
Methods for steering systems with nonholonomic constraints between arbitrary configurations are inve...
Nilpotent approximations are a useful tool for analyzing and controlling systems whose tangent linea...
We consider the problem of steering a class of nonholonomic systems, namely systems that are feedbac...
In this paper we derive control algorithms for a class of dynamic nonholonomic steering problems, ch...
The authors present a control law for globally asymptotically stabilizing a class of controllable no...
Existing methods for nonholonomic feedback stabilization can only be applied to exactly nilpotentiza...
We propose a general strategy for solving the motion planning problem for real analytic, controllabl...
International audienceIn this paper, we extend the globally convergent steering algorithm for regula...
In this paper, we present an iterative steering algorithm for nonholonomic systems (also called drif...
In this paper, we present an iterative steering algorithm for nonholonomic systems (also called drif...
In this paper we derive control algorithms for a class of dynamic nonholonomic steering problems, ch...
Abstract—We present a framework for the stabilization of non-holonomic systems that do not possess s...
This paper proposes a simple numerical technique for the steering of arbitrary analytic systems with...
Abstract — This paper proposes a simple numerical technique for the steering of arbitrary analytic s...
We present a framework for the stabilization of nonholonomic systems that do not possess special pro...
Methods for steering systems with nonholonomic constraints between arbitrary configurations are inve...
Nilpotent approximations are a useful tool for analyzing and controlling systems whose tangent linea...
We consider the problem of steering a class of nonholonomic systems, namely systems that are feedbac...
In this paper we derive control algorithms for a class of dynamic nonholonomic steering problems, ch...
The authors present a control law for globally asymptotically stabilizing a class of controllable no...
Existing methods for nonholonomic feedback stabilization can only be applied to exactly nilpotentiza...
We propose a general strategy for solving the motion planning problem for real analytic, controllabl...