In the analysis and design of microelectromechanical system (MEMS) devices, volume and surface forces are two physical quantities that are commonly encountered. During miniaturization, equal reduction of both the volume and the surface of a microstructure is not normally achievable. A 10% reduction in length results in the surface area. Therefore, the surface force effect of viscous damping has a more significant influence on the mechanical performance of MEMS devices such as frequency response characteristics, mechanical- thermal noise and switching speed.DOCTOR OF PHILOSOPHY (MAE
We propose the use of electrostatic force feedback to control the stiffness, damping, or mass of MEM...
Noise measurements were performed to determine the quality factor Q and the resonating frequency shi...
APS March Meeting 2018, Volume 63, Number 1, Monday–Friday, March 5–9, 2018; Los Angeles, California...
The focus of this paper is the experimental measurement of damping in microstructures. The main sour...
We report on finite element (FE) modeling and simulation of effect of squeeze-film damping on flexib...
A systematic experimental study of viscous air damping in laterally moving planar microstructures is...
Recent thrust in the design of sensitive sensors and actuators have motivated many researchers to op...
Except for MEMS working in a ultra high vacuum, the main cause of damping is the air surrounding the...
Theoretical aspects concerning the calculation of the air damping of microbeam resonators in the fra...
The study of damping in MEMS (micro electro-mechanical systems) is crucial for dynamic response pred...
Except for MEMS working in ultra high vacuum, the main cause of damping is the air surrounding the s...
Except for MEMS working in ultra high vacuum, the main cause of damping is the air surrounding the s...
A certain damping force occurs in the micro-mechanical systems referred as MEMS. At the design stage...
We propose the use of electrostatic force feedback to control the stiffness, damping, or mass of MEM...
We examine the significance of the energy loss mechanisms active in electrostatic MEMS actuators. We...
We propose the use of electrostatic force feedback to control the stiffness, damping, or mass of MEM...
Noise measurements were performed to determine the quality factor Q and the resonating frequency shi...
APS March Meeting 2018, Volume 63, Number 1, Monday–Friday, March 5–9, 2018; Los Angeles, California...
The focus of this paper is the experimental measurement of damping in microstructures. The main sour...
We report on finite element (FE) modeling and simulation of effect of squeeze-film damping on flexib...
A systematic experimental study of viscous air damping in laterally moving planar microstructures is...
Recent thrust in the design of sensitive sensors and actuators have motivated many researchers to op...
Except for MEMS working in a ultra high vacuum, the main cause of damping is the air surrounding the...
Theoretical aspects concerning the calculation of the air damping of microbeam resonators in the fra...
The study of damping in MEMS (micro electro-mechanical systems) is crucial for dynamic response pred...
Except for MEMS working in ultra high vacuum, the main cause of damping is the air surrounding the s...
Except for MEMS working in ultra high vacuum, the main cause of damping is the air surrounding the s...
A certain damping force occurs in the micro-mechanical systems referred as MEMS. At the design stage...
We propose the use of electrostatic force feedback to control the stiffness, damping, or mass of MEM...
We examine the significance of the energy loss mechanisms active in electrostatic MEMS actuators. We...
We propose the use of electrostatic force feedback to control the stiffness, damping, or mass of MEM...
Noise measurements were performed to determine the quality factor Q and the resonating frequency shi...
APS March Meeting 2018, Volume 63, Number 1, Monday–Friday, March 5–9, 2018; Los Angeles, California...