Ambipolar bistable switching effect of graphene
arXiv:1103.4666 · doi:10.1063/1.3532849
Abstract
Reproducible current hysteresis is observed in graphene with a back gate structure in a two-terminal configuration. By applying a back gate bias to tune the Fermi level, an opposite sequence of switching with the different charge carriers, holes and electrons, is found. The charging and discharging effect is proposed to explain this ambipolar bistable hysteretic switching. To confirm this hypothesis, one-level transport model simulations including charging effect are performed and the results are consistent with our experimental data. Methods of improving the ON/OFF ratio of graphene resistive switching are suggested.
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- Universal scaling of resistivity in bilayer graphene
- Resonant Tunneling and Intrinsic Bistability in Twisted Graphene Structures