1 citations · 2 across the 5 of their papers we have counts for
5 papers
Possibility of coherent electron transport in a nanoscale circuit
Mark J. Hagmann
Others have solved the Schrödinger equation to estimate the tunneling current between two electrodes at specified potentials, or the transmission through a potential barrier, assum…
Consistent analytical solution for the response of a nanoscale circuit to a mode-locked laser
Mark J. Hagmann, Logan D. Gibb
It is now common practice to solve the Schrödinger equation to estimate the tunneling current between two electrodes at specified potentials, or the transmission through a potentia…
Consistent analytical solution of the time-dependent Schrödinger equation for nanoscale circuits with laser-assisted quantum tunneling
Mark J. Hagmann, Logan D. Gibb
It is now common practice to solve the Schrödinger equation to estimate the tunneling current between two metal electrodes at specified potentials, or the transmission through a po…
Simple and accurate method to simulate resistors and wires in a nanoscale circuit
Mark J. Hagmann, Logan D. Gibb
In solving the Schrödinger equation to simulate a nanoscale circuit, we note that the mean free path for electrons in some metals is as large as 48 nm. Thus, the wavefunction may p…
Numerical testing by a transfer-matrix technique of Simmons' equation for the local current density in metal-vacuum-metal junctions
Alexandre Mayer, Marwan S. Mousa, Mark J. Hagmann +1
We test the consistency with which Simmons' model can predict the local current density obtained for flat metal-vacuum-metal junctions. The image potential energy used in Simmons'…