We show simultaneous p- and n-type carrier injection in a bilayer graphene channel by varying the longitudinal bias across the channel and the top-gate voltage. The top gate is applied electrochemically using solid polymer electrolyte and the gate capacitance is measured to be 1.5 microF cm(-2), a value about 125 times higher than the conventional SiO(2) back-gate capacitance. Unlike the single-layer graphene, the drain-source current does not saturate on varying the drain-source bias voltage. The energy gap opened between the valence and conduction bands using top- and back-gate geometry is estimated
We report on the fabrication and measurement of nanoscale devices that permit electrostatic confinem...
We report here an investigation of graphene field-effect transistors (G-FETs) in which the graphene ...
Ionic liquid gating is a technique which is much more efficient than solid gating to tune carrier de...
We show simultaneous p- and n-type carrier injection in a bilayer graphene channel by varying the lo...
We show simultaneous p- and n-type carrier injection in a bilayer graphene channel by varying the lo...
Graphene structures with both top- and bottom-electrostatic gates are studied. The top gate is made ...
Graphene structures with both top- and bottom-electrostatic gates are studied. The top gate is made ...
Quantum capacitance of electrolyte-gated bilayer graphene field-effect transistors is investigated i...
Quantum capacitance of electrolyte-gated bilayer graphene field-effect transistors is investigated i...
Understanding the electrical transport properties of graphene provides a basis for determining its f...
In this article, we present the simulation, fabrication, and characterization of a novel bilayer gra...
Graphene is considered to be one of the most promising materials in post-silicon electronics due to ...
Graphene's linear dispersion relation and the attendant implications for bipolar electronics applica...
The potential of graphene-based materials consisting of one or a few layers of graphite for integrat...
One of the key requirements for efficient organic-electronic devices is the creation of a negligible...
We report on the fabrication and measurement of nanoscale devices that permit electrostatic confinem...
We report here an investigation of graphene field-effect transistors (G-FETs) in which the graphene ...
Ionic liquid gating is a technique which is much more efficient than solid gating to tune carrier de...
We show simultaneous p- and n-type carrier injection in a bilayer graphene channel by varying the lo...
We show simultaneous p- and n-type carrier injection in a bilayer graphene channel by varying the lo...
Graphene structures with both top- and bottom-electrostatic gates are studied. The top gate is made ...
Graphene structures with both top- and bottom-electrostatic gates are studied. The top gate is made ...
Quantum capacitance of electrolyte-gated bilayer graphene field-effect transistors is investigated i...
Quantum capacitance of electrolyte-gated bilayer graphene field-effect transistors is investigated i...
Understanding the electrical transport properties of graphene provides a basis for determining its f...
In this article, we present the simulation, fabrication, and characterization of a novel bilayer gra...
Graphene is considered to be one of the most promising materials in post-silicon electronics due to ...
Graphene's linear dispersion relation and the attendant implications for bipolar electronics applica...
The potential of graphene-based materials consisting of one or a few layers of graphite for integrat...
One of the key requirements for efficient organic-electronic devices is the creation of a negligible...
We report on the fabrication and measurement of nanoscale devices that permit electrostatic confinem...
We report here an investigation of graphene field-effect transistors (G-FETs) in which the graphene ...
Ionic liquid gating is a technique which is much more efficient than solid gating to tune carrier de...