| Article ID | Journal | Published Year | Pages | File Type |
|---|---|---|---|---|
| 1786494 | Current Applied Physics | 2013 | 6 Pages |
A tunable graphene-nanoribbon (GNR)-resonator was investigated via classical molecular dynamics simulations. Resonance frequencies increased with increasing externally applied gate-force and axial-strain, and could be tuned above several hundred GHz. Tunable resonance frequencies achieved from the gate force were higher than those achieved from the axial-strain. The operating frequencies of GNR-resonators without axial-strain or with small axial-strains were most widely tuned by the gate, and almost linearly increased with increasing mean deflection. As the axial strain increased, the tunable ranges of the GNR-resonators were exponentially decreased, although the operating frequencies increased. GNR-resonators without axial-strain could be applied to wide-range-tuners, whereas GNR-resonators with high axial-strain could be applied to high-frequency-fine-tuners.
► Molecular Dynamics Study on a tunable graphene-nanoribbon (GNR)-resonator. ► Tunable range by the gate force is higher than that by the axial-strain. ► GNR-resonator’ frequencies without strain linearly increase with increasing deflection. ► GNR-resonators without strain can be applied to wide-range-tuners. ► GNR-resonators with high strain can be applied to high-frequency-fine-tuners.
