In this paper, we present a modeling error driven adaptive controller for control of a robot with unknown dynamics. In general, modeling error is not used since the ideal parameters are not known. However, using a feedback linearization approach we show that the modeling error can be obtained by a measured quantity representing the error dynamics under the ideal conditions, that is, the case for which the robot parameters are known a priori. We show that using this approach, the learning dynamics and plant dynamics are effectively decoupled and can then be analyzed separately. We present simulation examples of the 2-link manipulator that illustrates the algorithm. I
By exploiting an a priori estimate of the dynamic model of a manipulator, it is possible to command ...
Several alternative learning control algorithms are discussed, both from an inverse dynamics and an ...
This paper proposes an adaptive control algorithm for robot manipulators considering motor model. Fi...
Model-based feedback control algorithms for robot manipulators require the on-line evaluation of rob...
Model-based feedback control algorithms for robot manipulators require the on-line evaluation of rob...
Learning-based approaches are suitable for the control of systems with unknown dynamics. However, le...
An adaptive learning control scheme is presented for uncertain robotic systems that is capable of tr...
This paper addresses the problem of designing a global, output error feedback based, adaptive learni...
. In this paper, learning control schemes for robot manipulators are tested and compared. The contro...
The model-based approach in control engineering works well when a reliable plant model is available...
This work addresses the problem of reference tracking in autonomously learning robots with unknown, ...
Models are among the most essential tools in robotics, such as kinematics and dynamics models of the...
Comparative experiments with various parameter estimation methods in adaptive model-based robot cont...
In this paper we present a nonlinear adaptive output feedback control algorithm. The algorithm is fo...
In this paper, two intelligent control methods for robot manipulators are discussed. One is a learni...
By exploiting an a priori estimate of the dynamic model of a manipulator, it is possible to command ...
Several alternative learning control algorithms are discussed, both from an inverse dynamics and an ...
This paper proposes an adaptive control algorithm for robot manipulators considering motor model. Fi...
Model-based feedback control algorithms for robot manipulators require the on-line evaluation of rob...
Model-based feedback control algorithms for robot manipulators require the on-line evaluation of rob...
Learning-based approaches are suitable for the control of systems with unknown dynamics. However, le...
An adaptive learning control scheme is presented for uncertain robotic systems that is capable of tr...
This paper addresses the problem of designing a global, output error feedback based, adaptive learni...
. In this paper, learning control schemes for robot manipulators are tested and compared. The contro...
The model-based approach in control engineering works well when a reliable plant model is available...
This work addresses the problem of reference tracking in autonomously learning robots with unknown, ...
Models are among the most essential tools in robotics, such as kinematics and dynamics models of the...
Comparative experiments with various parameter estimation methods in adaptive model-based robot cont...
In this paper we present a nonlinear adaptive output feedback control algorithm. The algorithm is fo...
In this paper, two intelligent control methods for robot manipulators are discussed. One is a learni...
By exploiting an a priori estimate of the dynamic model of a manipulator, it is possible to command ...
Several alternative learning control algorithms are discussed, both from an inverse dynamics and an ...
This paper proposes an adaptive control algorithm for robot manipulators considering motor model. Fi...