This paper considers the autonomous navigation problem of multiple n-link nonholonomic mobile manipulators within an obstacle-ridden environment. We present a set of nonlinear acceleration controllers, derived from the Lyapunov-based control scheme, which generates collision-free trajectories of the mobile manipulators from initial configurations to final configurations in a constrained environment cluttered with stationary solid objects of different shapes and sizes. We demonstrate the efficiency of the control scheme and the resulting acceleration controllers of the mobile manipulators with results through computer simulations of an interesting scenario
In this thesis, the control based on two-layer neural network is suggested for nonholonomic constrai...
In this chapter, a nonlinear control design is proposed for a team of wheeled mobile robots to coope...
This paper considers a polygon formation control of multiple robots with nonholonomic constraints en...
This paper considers the design of a motion planner that will simultaneously accomplish control and ...
This paper presents the first motion planning methodology applicable to articulated, nonpoint nonhol...
We propose an algorithm as a solution to the problem of trajectory planning and posture control of m...
The paper considers the problem of motion planning and posture control of multiple n-link doubly no...
Abstract This paper provides a new framework for the collective motion control of a team of n-link d...
In this paper, we present a theoretical exposition into the application of an artificial potential f...
This paper investigates multiple wheeled mobile ma-nipulators coordinating with each other under a c...
International audience— This paper considers the navigation in formation of a mobile Multi-Robot Sys...
International audience— This paper considers the navigation in formation of a mobile Multi-Robot Sys...
In this paper, we propose a new solution to the motion plan- ning and control problem via the Lyapun...
Finding feasible solutions to motion planning and control problem of robotic systems in different en...
Wheeled mobile robot finds various applications because it can perform tasks autonomously in dangero...
In this thesis, the control based on two-layer neural network is suggested for nonholonomic constrai...
In this chapter, a nonlinear control design is proposed for a team of wheeled mobile robots to coope...
This paper considers a polygon formation control of multiple robots with nonholonomic constraints en...
This paper considers the design of a motion planner that will simultaneously accomplish control and ...
This paper presents the first motion planning methodology applicable to articulated, nonpoint nonhol...
We propose an algorithm as a solution to the problem of trajectory planning and posture control of m...
The paper considers the problem of motion planning and posture control of multiple n-link doubly no...
Abstract This paper provides a new framework for the collective motion control of a team of n-link d...
In this paper, we present a theoretical exposition into the application of an artificial potential f...
This paper investigates multiple wheeled mobile ma-nipulators coordinating with each other under a c...
International audience— This paper considers the navigation in formation of a mobile Multi-Robot Sys...
International audience— This paper considers the navigation in formation of a mobile Multi-Robot Sys...
In this paper, we propose a new solution to the motion plan- ning and control problem via the Lyapun...
Finding feasible solutions to motion planning and control problem of robotic systems in different en...
Wheeled mobile robot finds various applications because it can perform tasks autonomously in dangero...
In this thesis, the control based on two-layer neural network is suggested for nonholonomic constrai...
In this chapter, a nonlinear control design is proposed for a team of wheeled mobile robots to coope...
This paper considers a polygon formation control of multiple robots with nonholonomic constraints en...