Mechanical systems can be asymptotically stabilized without velocity measurements by applying a dynamic extension. By interconnecting the system with a (virtual) controller damping is indirectly injected into the system making velocity measurements unnecessary, provided that this damping propagates to the mechanical system. The approach has been shown for the case of potential energy shaping and for a class of systems requiring total energy shaping. In this paper we investigate the same idea for the trajectory tracking problem. Like with the stabilization problem we apply a dynamic extension to avoid having to measure the system velocities and still realize perfect tracking of a desired trajectory. This is done for fully-actuated port-Hamil...
We examine the control problem of curve-tracking for a fully actuated mechanical system. Using a coo...
This paper presents a trajectory-tracking control strategy for a class of mechanical systems in Hami...
International audienceA solution to the problem of global exponential tracking of mechanical systems...
Mechanical systems can be asymptotically stabilized without velocity measurements by applying a dyna...
Mechanical systems can be asymptotically stabilized without velocity measurements by applying a dyna...
A dynamic extension for position feedback of port-Hamiltonian mechanical systems is studied. First w...
A dynamic extension for position feedback of port-Hamiltonian mechanical systems is studied. First w...
A dynamic extension for position feedback of port-Hamiltonian mechanical systems is studied. First w...
In this work, we propose a passivity-based control technique, where the resulting controllers can be...
The main purpose of this paper is to investigate the robustness of tracking controllers for mechanic...
In this work, we propose a passivity-based control technique, where the resulting controllers can be...
In this work, we propose passivity-based control techniques, where the resulting controllers include...
We examine the control problem of curve-tracking for a fully actuated mechanical system. Using a coo...
This paper presents a trajectory-tracking control strategy for a class of mechanical systems in Hami...
International audienceA solution to the problem of global exponential tracking of mechanical systems...
Mechanical systems can be asymptotically stabilized without velocity measurements by applying a dyna...
Mechanical systems can be asymptotically stabilized without velocity measurements by applying a dyna...
A dynamic extension for position feedback of port-Hamiltonian mechanical systems is studied. First w...
A dynamic extension for position feedback of port-Hamiltonian mechanical systems is studied. First w...
A dynamic extension for position feedback of port-Hamiltonian mechanical systems is studied. First w...
In this work, we propose a passivity-based control technique, where the resulting controllers can be...
The main purpose of this paper is to investigate the robustness of tracking controllers for mechanic...
In this work, we propose a passivity-based control technique, where the resulting controllers can be...
In this work, we propose passivity-based control techniques, where the resulting controllers include...
We examine the control problem of curve-tracking for a fully actuated mechanical system. Using a coo...
This paper presents a trajectory-tracking control strategy for a class of mechanical systems in Hami...
International audienceA solution to the problem of global exponential tracking of mechanical systems...