From sensing perspective, smaller electromechanical devices, in general, are expected to be more responsive to the stimuli. This enhanced performance, however, is contingent upon the noise sources remaining unchanged and the onset of nonlinear behavior not being precipitated by miniaturization. In this paper, we study the effect of strain on the nonlinearities and dynamic range in graphene nanoresonators. The dynamic response and the onset of nonlinearity in these devices are sensitive both to the electrostatic field used to actuate the device and the strain. By tuning the strain of the device by two orders of magnitude, we observe an enhancement of 25 dB in the dynamic range leading to a mass resolution of 100 yoctogram. The increase in dy...
Ever since its inception, graphene has been the subject of research in many parts of theworld. This ...
We use suspended graphene electromechanical resonators to study the variation of resonant frequency ...
Nanoelectromechanical systems (NEMS) can measure very small forces and mass as has been showcased in...
Enhancing the mass sensitivity of graphene nanoresonators via nonlinear oscillations: The effective ...
Nanoelectromechanical systems (NEMS) have drawn considerable attention towards several sensing appli...
In this article, we report on a comprehensive modeling study of frequency tuning of graphene resonan...
Made of only on sheet of carbon atoms, graphene is the thinnest yet strongest material ever exist. S...
The enormous stiffness and low density of graphene make it an ideal material for nanoelectromechanic...
We have studied the finite-size effect on the dynamic behavior of graphene resonators and their appl...
Made of only on sheet of carbon atoms, graphene is the thinnest yet strongest material ever exist. S...
Graphene, a carbon-based two-dimensional material, has remarkable electrical and mechanical properti...
We explore an electrostatic mechanism for tuning the nonlinearity of nanomechanical resonators and i...
Graphene, a carbon-based two-dimensional material, has remarkable electrical and mechanical properti...
We explore an electrostatic mechanism for tuning the nonlinearity of nanomechanical resonators and i...
A continuum membrane model is presented to describe the pull-in instability and eigenfrequency varia...
Ever since its inception, graphene has been the subject of research in many parts of theworld. This ...
We use suspended graphene electromechanical resonators to study the variation of resonant frequency ...
Nanoelectromechanical systems (NEMS) can measure very small forces and mass as has been showcased in...
Enhancing the mass sensitivity of graphene nanoresonators via nonlinear oscillations: The effective ...
Nanoelectromechanical systems (NEMS) have drawn considerable attention towards several sensing appli...
In this article, we report on a comprehensive modeling study of frequency tuning of graphene resonan...
Made of only on sheet of carbon atoms, graphene is the thinnest yet strongest material ever exist. S...
The enormous stiffness and low density of graphene make it an ideal material for nanoelectromechanic...
We have studied the finite-size effect on the dynamic behavior of graphene resonators and their appl...
Made of only on sheet of carbon atoms, graphene is the thinnest yet strongest material ever exist. S...
Graphene, a carbon-based two-dimensional material, has remarkable electrical and mechanical properti...
We explore an electrostatic mechanism for tuning the nonlinearity of nanomechanical resonators and i...
Graphene, a carbon-based two-dimensional material, has remarkable electrical and mechanical properti...
We explore an electrostatic mechanism for tuning the nonlinearity of nanomechanical resonators and i...
A continuum membrane model is presented to describe the pull-in instability and eigenfrequency varia...
Ever since its inception, graphene has been the subject of research in many parts of theworld. This ...
We use suspended graphene electromechanical resonators to study the variation of resonant frequency ...
Nanoelectromechanical systems (NEMS) can measure very small forces and mass as has been showcased in...