In this work a neural indirect sliding mode control method for mobile robots is proposed. Due to the nonholonomic property and restricted mobility, the trajectory tracking of this system has been one of the research topics for the last ten years. The proposed control structure combines a feedback linearization model, based on a kinematics nominal model, and a practical design that combines an indirect neural adaptation technique with sliding mode control to compensate the dynamics of the robot. Using an online adaptation scheme, a neural sliding mode controller is used to approximate the equivalent control in the neighbourhood of the sliding manifold. A sliding control is appended to ensure that the neural sliding mode control can achieve a...
In this paper the neural network-based controller is designed for motion control of a mobile robot. ...
The paper demonstrates an enhancement in the mobile robot’s performance during trajectory tracking w...
The complete model of a mobile robot can be divided into kinematics and dynamics. To take advantage ...
In this work a sliding mode control method for a non-holonomic mobile robot using an adaptive neural...
It is well known that all robotic systems have additional dynamics and disturbances beyond those tha...
Abstract: In this paper a New RBF Neural Network based Sliding Mode Adaptive Controller (NNNSMAC) fo...
This paper analyses a trajectory tracking control problem for a wheeled mobile robot, Rusing integra...
In this paper, a trajectory tracking control problem for a nonholonomic mobile robot by the integrat...
In this paper, a trajectory tracking control for a nonholonomic mobile robot by the integration of a...
This paper briefly discusses about the Robust Controller based on Adaptive Sliding Mode Technique wi...
This work presents a discrete-time sliding mode neuro-adaptive control (DTSMNAC) method for robot ma...
In this work, original results, concerning the application of a discrete-time adaptive PID neural co...
A general mobile modular manipulator can be defined as a m-wheeled holonomic/nonholonomic mobile pla...
Abstract. A general mobile modular manipulator can be defined as a m-wheeled holonomic/ nonholonomic...
This work presents a neuro-adaptive control method in sliding mode control designed in discrete time...
In this paper the neural network-based controller is designed for motion control of a mobile robot. ...
The paper demonstrates an enhancement in the mobile robot’s performance during trajectory tracking w...
The complete model of a mobile robot can be divided into kinematics and dynamics. To take advantage ...
In this work a sliding mode control method for a non-holonomic mobile robot using an adaptive neural...
It is well known that all robotic systems have additional dynamics and disturbances beyond those tha...
Abstract: In this paper a New RBF Neural Network based Sliding Mode Adaptive Controller (NNNSMAC) fo...
This paper analyses a trajectory tracking control problem for a wheeled mobile robot, Rusing integra...
In this paper, a trajectory tracking control problem for a nonholonomic mobile robot by the integrat...
In this paper, a trajectory tracking control for a nonholonomic mobile robot by the integration of a...
This paper briefly discusses about the Robust Controller based on Adaptive Sliding Mode Technique wi...
This work presents a discrete-time sliding mode neuro-adaptive control (DTSMNAC) method for robot ma...
In this work, original results, concerning the application of a discrete-time adaptive PID neural co...
A general mobile modular manipulator can be defined as a m-wheeled holonomic/nonholonomic mobile pla...
Abstract. A general mobile modular manipulator can be defined as a m-wheeled holonomic/ nonholonomic...
This work presents a neuro-adaptive control method in sliding mode control designed in discrete time...
In this paper the neural network-based controller is designed for motion control of a mobile robot. ...
The paper demonstrates an enhancement in the mobile robot’s performance during trajectory tracking w...
The complete model of a mobile robot can be divided into kinematics and dynamics. To take advantage ...