The obtainable quality factor for a nano beam resonator is limited due to internal damping such as thermoelastic damping. Therefore, understanding how internal damping varies with the respective resonant modes is very important to design a high performance nanoresonator. In this research, we investigate thermoelastic damping depending on vibration modes of nano beam resonators using finite element method. The study results show that the quality factor of a nanoresonator is lower than at high order modes. The silicon nano beam resonator with the quality factor larger than one million can be achieved by optimizing the dimensions of the resonant beam
ABSTRACT Maximizing quality (Q) factor is key to enhancing the performance of micro mechanical reson...
AbstractPresent investigation is focused on studying the effect of mass diffusion on the quality fac...
Energy dissipation experienced by vibrating microcantilever beams immersed in fluid is strongly depe...
AbstractThermoelastic damping is recognized as a significant loss mechanism at room temperature in m...
The importance of thermoelastic damping as a fundamental dissipation mechanism for small-scale mecha...
AbstractMiniaturized resonators are critical components in many application fields such as sensing, ...
Mechanical resonators, with dimensions ranging from hundreds of nanometers to hundreds of micrometer...
In this article, the recent and original results on the effect of thermoelastic damping (TED) on the...
Thermoelastic damping is recognized as a significant loss mechanism at room temperature in micro-sca...
The operation of micro-=nanobeams vibrating at very high frequencies, such as encountered in micro-=...
A beam model is developed in the current work to analyze the dynamic characteristics of a dielectric...
Thermoelastic dissipation (TED) is analyzed for complex geometries of micromechanical resonators, de...
Abstract — This paper focus the study of Quality factor of MEMS resonators are analyzed by varying t...
Over the past years there has been great progression in the field of micro- and nanomechanics with d...
First, this research presents experimental and theoretical investigation of the response of micro sc...
ABSTRACT Maximizing quality (Q) factor is key to enhancing the performance of micro mechanical reson...
AbstractPresent investigation is focused on studying the effect of mass diffusion on the quality fac...
Energy dissipation experienced by vibrating microcantilever beams immersed in fluid is strongly depe...
AbstractThermoelastic damping is recognized as a significant loss mechanism at room temperature in m...
The importance of thermoelastic damping as a fundamental dissipation mechanism for small-scale mecha...
AbstractMiniaturized resonators are critical components in many application fields such as sensing, ...
Mechanical resonators, with dimensions ranging from hundreds of nanometers to hundreds of micrometer...
In this article, the recent and original results on the effect of thermoelastic damping (TED) on the...
Thermoelastic damping is recognized as a significant loss mechanism at room temperature in micro-sca...
The operation of micro-=nanobeams vibrating at very high frequencies, such as encountered in micro-=...
A beam model is developed in the current work to analyze the dynamic characteristics of a dielectric...
Thermoelastic dissipation (TED) is analyzed for complex geometries of micromechanical resonators, de...
Abstract — This paper focus the study of Quality factor of MEMS resonators are analyzed by varying t...
Over the past years there has been great progression in the field of micro- and nanomechanics with d...
First, this research presents experimental and theoretical investigation of the response of micro sc...
ABSTRACT Maximizing quality (Q) factor is key to enhancing the performance of micro mechanical reson...
AbstractPresent investigation is focused on studying the effect of mass diffusion on the quality fac...
Energy dissipation experienced by vibrating microcantilever beams immersed in fluid is strongly depe...