The well-known Brocket's theorem revealed that nonholonomic systems, hopping robots, for example, can not be stabilized by smooth time-invariant state feedback controllers. In this manuscript, we propose a linear time-varying state feedback controller for stabilizing a nonholonomic hopping robot during flight mode in finite time. The current approach is novel in the sense that we modify the Pontryagin's minimum principle to formulate the linear state feedback control law. The existence of such a control law and its necessary conditions are presented in detail. The theoretical results are also validated through computer simulations
This paper concerns the small-time stabilization of some classes of mechanical systems which are not...
Structurally reconfigurable or variant robot systems can provide better mobility and environmental a...
A new technique for stabilizing nonholonomic systems to trajectories is presented. It is well known ...
In this paper, we propose an optimal state feedback control law for addressing point stabilization a...
This paper proposes an optimal time-varying linear state feedback control for wheeled mobile robot o...
In this paper, we address the problem of stabilisation of robots subject to nonholonommic constraint...
International audienceIn this paper, we address the problem of stabilisation of robots subject to no...
International audienceIn this paper, we address the problem of stabilisation of robots subject to no...
. In this paper we present time invariant controllers which globally asymptotically stabilize a simp...
In this paper we propose a linear time-invariant (LTI) state feedback operator for nonholonomic mobi...
A novel terminal sliding mode control is introduced to control a class of nonlinear uncertain system...
Many nonholonomic mechanical systems, such as car-like mobile robots, are controllable but cannot be...
The finite-time stabilization problem of dynamic nonholonomic wheeled mobile robots with parameter u...
Exponentially stabilizing a non-Spring Loaded Inverted Pendulum (SLIP) model-based one-legged hoppin...
This paper presents a novel control algorithm for tracking of nonlinear dynamic systems. The trackin...
This paper concerns the small-time stabilization of some classes of mechanical systems which are not...
Structurally reconfigurable or variant robot systems can provide better mobility and environmental a...
A new technique for stabilizing nonholonomic systems to trajectories is presented. It is well known ...
In this paper, we propose an optimal state feedback control law for addressing point stabilization a...
This paper proposes an optimal time-varying linear state feedback control for wheeled mobile robot o...
In this paper, we address the problem of stabilisation of robots subject to nonholonommic constraint...
International audienceIn this paper, we address the problem of stabilisation of robots subject to no...
International audienceIn this paper, we address the problem of stabilisation of robots subject to no...
. In this paper we present time invariant controllers which globally asymptotically stabilize a simp...
In this paper we propose a linear time-invariant (LTI) state feedback operator for nonholonomic mobi...
A novel terminal sliding mode control is introduced to control a class of nonlinear uncertain system...
Many nonholonomic mechanical systems, such as car-like mobile robots, are controllable but cannot be...
The finite-time stabilization problem of dynamic nonholonomic wheeled mobile robots with parameter u...
Exponentially stabilizing a non-Spring Loaded Inverted Pendulum (SLIP) model-based one-legged hoppin...
This paper presents a novel control algorithm for tracking of nonlinear dynamic systems. The trackin...
This paper concerns the small-time stabilization of some classes of mechanical systems which are not...
Structurally reconfigurable or variant robot systems can provide better mobility and environmental a...
A new technique for stabilizing nonholonomic systems to trajectories is presented. It is well known ...