The dynamic uncertainties and disturbances characterizing continuum soft robots call for the derivation of simple and possibly information-free controllers. We propose an iterative learning control law for shape regulation of continuum soft robots consisting of a PD action and a feedforward term, updated to learn the potential forces at the target configuration. We prove that the regulator achieves global asymptotic stabilization of the closed-loop system to the desired set-point. Simulation results validate the proposed control law
This article introduces a machine-learning-based approach for closed loop kinematic control of conti...
The regulation of motor variable positions in robots with elastic elements has been solved using PD ...
This paper proposes a model-based control design approach for a broad class of soft robots, having t...
The dynamic uncertainties and disturbances characterizing continuum soft robots call for the deriva...
Fully exploiting soft robots' capabilities requires devising strategies that can accurately control ...
Thanks to their compliance structure, soft robots are effective in tasks involving cooperation with ...
Interactions between robots and the environment frequently occur during most modern robotic applicat...
Recently, learning-based controllers that leverage mechanical models of soft robots have shown promi...
Soft robots are intrinsically underactuated mechanical systems that operate under uncertainties and ...
Modern robotic applications often involve physical interactions between the robot’s end-effector and...
Despite the classic nature of the problem, trajectory tracking for Soft Robots, i.e. robots with ela...
Dynamic control of soft robotic manipulators is a challenging field still in its nascent stages. Mod...
Learning-based modeling and control of soft robots is advantageous due to neural network's ability t...
Trajectory tracking of flexible link robots is a classical control problem. Historically, the link e...
The intrinsically underactuated and nonlinear nature of continuum soft robots makes the derivation o...
This article introduces a machine-learning-based approach for closed loop kinematic control of conti...
The regulation of motor variable positions in robots with elastic elements has been solved using PD ...
This paper proposes a model-based control design approach for a broad class of soft robots, having t...
The dynamic uncertainties and disturbances characterizing continuum soft robots call for the deriva...
Fully exploiting soft robots' capabilities requires devising strategies that can accurately control ...
Thanks to their compliance structure, soft robots are effective in tasks involving cooperation with ...
Interactions between robots and the environment frequently occur during most modern robotic applicat...
Recently, learning-based controllers that leverage mechanical models of soft robots have shown promi...
Soft robots are intrinsically underactuated mechanical systems that operate under uncertainties and ...
Modern robotic applications often involve physical interactions between the robot’s end-effector and...
Despite the classic nature of the problem, trajectory tracking for Soft Robots, i.e. robots with ela...
Dynamic control of soft robotic manipulators is a challenging field still in its nascent stages. Mod...
Learning-based modeling and control of soft robots is advantageous due to neural network's ability t...
Trajectory tracking of flexible link robots is a classical control problem. Historically, the link e...
The intrinsically underactuated and nonlinear nature of continuum soft robots makes the derivation o...
This article introduces a machine-learning-based approach for closed loop kinematic control of conti...
The regulation of motor variable positions in robots with elastic elements has been solved using PD ...
This paper proposes a model-based control design approach for a broad class of soft robots, having t...