In this paper, we propose a synchronization controller for flexible joint robots, which are interconnected in a master-slave scheme. The synchronization controller is based on feedback linearization and only requires measurements of the master and slave link positions, since the velocities and accelerations are estimated by means of model-based nonlinear observers. It is shown, using Lyapunov function based stability analysis, that the proposed synchronization controller yields local uniformly ultimately boundedness of the closed loop errors. A tuning gain procedure is presented. The results are supported by simulations in a one degree of freedom master-slave system
This paper presents the first input-output robust control design for the trajectory following proble...
This paper presents the first input-output robust control design for the trajectory following proble...
Feedback linearization is one of the major academic approaches for controlling flexible joint robots...
In this paper, we propose a synchronization controller for flexible joint robots, which are intercon...
This research project contains three main aspects. First, an observer-based controller is considered...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
This research project contains three main aspects. First, an observer-based controller is considered...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
International audienceWe solve the open problem of global tracking control of 2nd-degree under-actua...
International audienceWe solve the open problem of global tracking control of 2nd-degree under-actua...
International audienceWe solve the open problem of global tracking control of 2nd-degree under-actua...
This paper presents a solution to the global adaptive partial state feedback control problem for rig...
This paper presents the first input-output robust control design for the trajectory following proble...
This paper presents the first input-output robust control design for the trajectory following proble...
Feedback linearization is one of the major academic approaches for controlling flexible joint robots...
In this paper, we propose a synchronization controller for flexible joint robots, which are intercon...
This research project contains three main aspects. First, an observer-based controller is considered...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
This research project contains three main aspects. First, an observer-based controller is considered...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
In this paper, a controller that solves the problem of position synchronization of two (or more) rob...
International audienceWe solve the open problem of global tracking control of 2nd-degree under-actua...
International audienceWe solve the open problem of global tracking control of 2nd-degree under-actua...
International audienceWe solve the open problem of global tracking control of 2nd-degree under-actua...
This paper presents a solution to the global adaptive partial state feedback control problem for rig...
This paper presents the first input-output robust control design for the trajectory following proble...
This paper presents the first input-output robust control design for the trajectory following proble...
Feedback linearization is one of the major academic approaches for controlling flexible joint robots...