Finite element modeling of a cantilever beam and active vibration control are implemented within the MATLAB environment. Using classical root locus design techniques, a lead-lag compensator is designed to stabilize the beam and to eliminate the effect of a step disturbance. This utilization of the finite element method and control system theory in a common software environment has valuable applications in active vibration control of more complex mechanical systems such as space structures and lasers
The aim of this study is to control the residual vibrations of a clamped-free beam subjected to a mo...
This paper presents the active vibration suppression of a cantilever beam using shape memory alloy (...
This paper presents the active vibration suppression of a cantilever beam using shape memory alloy (...
Finite element modeling of a cantilever beam and active vibration control are implemented within the...
The objective of this research project is to apply classical linear control system techniques to the...
The objective of this research project is to apply classical linear control system techniques to the...
The current technology manifests a great demand for high precision and high positioning accuracy in ...
Active control techniques when coupled with the smart material technology plays a vital role in miti...
Summarization: In this paper an active vibration control technique for a smart beam is presented. Th...
The aim of this study is to control the residual vibrations of a clamped-free beam subjected to a mo...
The Finite Element Method (FEM) based computational mechanics is applied to simulate the optimal att...
The aim of this study is to control the residual vibrations of a clamped-free beam subjected to a mo...
This study presents an active vibration control technique applied to a smart beam. The smart beam co...
This study presents an active vibration control technique applied to a smart beam. The smart beam co...
The problem of the attenuation of the vibration effects in active cantilever beams has been approach...
The aim of this study is to control the residual vibrations of a clamped-free beam subjected to a mo...
This paper presents the active vibration suppression of a cantilever beam using shape memory alloy (...
This paper presents the active vibration suppression of a cantilever beam using shape memory alloy (...
Finite element modeling of a cantilever beam and active vibration control are implemented within the...
The objective of this research project is to apply classical linear control system techniques to the...
The objective of this research project is to apply classical linear control system techniques to the...
The current technology manifests a great demand for high precision and high positioning accuracy in ...
Active control techniques when coupled with the smart material technology plays a vital role in miti...
Summarization: In this paper an active vibration control technique for a smart beam is presented. Th...
The aim of this study is to control the residual vibrations of a clamped-free beam subjected to a mo...
The Finite Element Method (FEM) based computational mechanics is applied to simulate the optimal att...
The aim of this study is to control the residual vibrations of a clamped-free beam subjected to a mo...
This study presents an active vibration control technique applied to a smart beam. The smart beam co...
This study presents an active vibration control technique applied to a smart beam. The smart beam co...
The problem of the attenuation of the vibration effects in active cantilever beams has been approach...
The aim of this study is to control the residual vibrations of a clamped-free beam subjected to a mo...
This paper presents the active vibration suppression of a cantilever beam using shape memory alloy (...
This paper presents the active vibration suppression of a cantilever beam using shape memory alloy (...