In this work the chaotic behavior of a micro-mechanical resonator with electrostatic forces on both sides is suppressed. The aim is to control the system in an orbit of the analytical solution obtained by the Method of Multiple Scales. Two control strategies are used for controlling the trajectory of the system, namely: State Dependent Riccati Equation (SDRE) Control and Optimal Linear Feedback Control (OLFC). The controls proved effectiveness in controlling the trajectory of the system. Additionally, the robustness of each strategy is tested considering the presence of parametric errors and measurement noise in control. © 2012 American Institute of Physics
In this work, we deal with a micro electromechanical system (MEMS), represented by a micro-accelerom...
The performance of the optimal linear feedback control and of the state-dependent Riccati equation c...
In this paper a robotic arm is modelled by a double pendulum excited in its base by a DC motor of li...
During the last decade the chaotic behavior in MEMS resonators have been reported in a number of wor...
During the last decade the chaotic behavior in MEMS resonators have been reported in a number of wor...
The present work addresses the problem of chaos control in an electrostatic MEMS resonator by using ...
The electromechanical transducer considered in this work is composed of a mechanical oscillator link...
The dynamic analysis and control of a nonlinear MEM resonator system are considered. Phase diagram, ...
The dynamical analysis and control of a nonlinear MEMS resonator system is considered. Phase diagram...
This paper analyzes the non-linear dynamics. with a chaotic behavior of a particular microelectro-me...
This paper presents the linear optimal control technique for reducing the chaotic movement of the mi...
ABSTRACT: The present work addresses the problem of chaos control in an electrostatic MEMS resonator...
AbstractThis study analyzes the chaotic behavior of a micromechanical resonator with electrostatic f...
The proposed research has focused theoretically and experimentally on devising nonlinear strategies ...
AbstractA delayed position feedback control is applied on DC voltage source for suppressing chaos of...
In this work, we deal with a micro electromechanical system (MEMS), represented by a micro-accelerom...
The performance of the optimal linear feedback control and of the state-dependent Riccati equation c...
In this paper a robotic arm is modelled by a double pendulum excited in its base by a DC motor of li...
During the last decade the chaotic behavior in MEMS resonators have been reported in a number of wor...
During the last decade the chaotic behavior in MEMS resonators have been reported in a number of wor...
The present work addresses the problem of chaos control in an electrostatic MEMS resonator by using ...
The electromechanical transducer considered in this work is composed of a mechanical oscillator link...
The dynamic analysis and control of a nonlinear MEM resonator system are considered. Phase diagram, ...
The dynamical analysis and control of a nonlinear MEMS resonator system is considered. Phase diagram...
This paper analyzes the non-linear dynamics. with a chaotic behavior of a particular microelectro-me...
This paper presents the linear optimal control technique for reducing the chaotic movement of the mi...
ABSTRACT: The present work addresses the problem of chaos control in an electrostatic MEMS resonator...
AbstractThis study analyzes the chaotic behavior of a micromechanical resonator with electrostatic f...
The proposed research has focused theoretically and experimentally on devising nonlinear strategies ...
AbstractA delayed position feedback control is applied on DC voltage source for suppressing chaos of...
In this work, we deal with a micro electromechanical system (MEMS), represented by a micro-accelerom...
The performance of the optimal linear feedback control and of the state-dependent Riccati equation c...
In this paper a robotic arm is modelled by a double pendulum excited in its base by a DC motor of li...