We develop a finite-difference time-domain (FDTD) method for simulating the dynamics of graphene electrons, denoted GraFDTD. We then use GraFDTD to study the temporal behavior of a single localized electron wave packet, showing that it exhibits optical-like dynamics including the Goos–Hänchen effect [ F. Goos and H. Hänchen, Ann. Phys. 436, 333 (1947)] at a heterojunction, but the behavior is quantitatively different than for electromagnetic waves. This suggests issues that must be addressed in designing graphene-based electronic devices analogous to optical devices. GraFDTD should be useful for studying such complex time-dependent behavior of a quasiparticle in graphene
The evolution of electronic wave packets (WPs) through grain boundaries (GBs) of various structures ...
We investigate the physical properties of classical and quantum plasmons in graphene nanostructures ...
Graphene nanoribbons provide an ideal platform for electronic interferometry in the Integer Quantum ...
We develop a finite-difference time-domain (FDTD) method for simulating the dynamics of graphene ele...
Van der Waals heterostructures composed of two-dimensional materials offer an unprecedented control ...
preprint, 37 pages, 11 figuresThe time evolution of electron waves in graphene superlattices is stud...
preprint, 37 pages, 11 figuresThe time evolution of electron waves in graphene superlattices is stud...
Graphene as atomically thin two-dimensional material exhibits remarkable<br />optical and electronic...
AbstractIn this work we analyzed the time propagation of wave packets on a sheet of graphene under t...
We demonstrate that currents induced in graphene by ultrashort laser pulses are sensitive to the exa...
Graphene as atomically thin two-dimensional material exhibits remarkableoptical and electronic prope...
We study the solution of the time-dependent Schr¨odinger equation for systems driven out of equilibr...
Using the partition-free time-dependent Landauer–Büttiker formalism for transient current correlatio...
This work introduces a parallel computing framework to characterize the propagation of electron wave...
This work introduces a parallel computing framework to characterize the propagation of electron wave...
The evolution of electronic wave packets (WPs) through grain boundaries (GBs) of various structures ...
We investigate the physical properties of classical and quantum plasmons in graphene nanostructures ...
Graphene nanoribbons provide an ideal platform for electronic interferometry in the Integer Quantum ...
We develop a finite-difference time-domain (FDTD) method for simulating the dynamics of graphene ele...
Van der Waals heterostructures composed of two-dimensional materials offer an unprecedented control ...
preprint, 37 pages, 11 figuresThe time evolution of electron waves in graphene superlattices is stud...
preprint, 37 pages, 11 figuresThe time evolution of electron waves in graphene superlattices is stud...
Graphene as atomically thin two-dimensional material exhibits remarkable<br />optical and electronic...
AbstractIn this work we analyzed the time propagation of wave packets on a sheet of graphene under t...
We demonstrate that currents induced in graphene by ultrashort laser pulses are sensitive to the exa...
Graphene as atomically thin two-dimensional material exhibits remarkableoptical and electronic prope...
We study the solution of the time-dependent Schr¨odinger equation for systems driven out of equilibr...
Using the partition-free time-dependent Landauer–Büttiker formalism for transient current correlatio...
This work introduces a parallel computing framework to characterize the propagation of electron wave...
This work introduces a parallel computing framework to characterize the propagation of electron wave...
The evolution of electronic wave packets (WPs) through grain boundaries (GBs) of various structures ...
We investigate the physical properties of classical and quantum plasmons in graphene nanostructures ...
Graphene nanoribbons provide an ideal platform for electronic interferometry in the Integer Quantum ...