We show how lattice Quantum Monte Carlo simulations can be used to calculate electronic properties of carbon nanotubes in the presence of strong electron-electron correlations. We employ the path integral formalism and use methods developed within the lattice QCD community for our numerical work and compare our results to empirical data of the Anti-Ferromagnetic Mott Insulating gap in large diameter tubes
carbon nanotubes. The energy band structure of a carbon nanotube may ordinarily be obtained by “zone...
We introduce a quantum Monte Carlo technique to calculate exactly at finite temperatures the Green f...
The dynamics of electrons governed by the Coulomb interaction determines a large portion of the obse...
We show how lattice Quantum Monte Carlo simulations can be used to calculate electronic properties o...
We show how lattice quantum Monte Carlo can be applied to the electronic properties of carbon nanotu...
Fifty years ago Walter Kohn speculated that a zero-gap semiconductor might be unstable against the s...
We revisit the problem of the correlation gap in $(n,n)$ armchair carbon nanotubes, that would be me...
The Mott insulating state is a manifestation of strong electron interactions in nominally metallic s...
In the present work we study the electronic transport properties of finite length single-wall carbon...
Carbon nanotubes have excellent potential as basic building blocks for nanometer scale electron devi...
Investigating the influence of disorder on electron transport is difficult for very large systems. T...
11 pages, 5 figuresWe develop a method for calculating the fundamental electronic gap of semiconduct...
Since the advent of nanoscale material based electronic devices, there has been a considerable inter...
One dimensional systems offer a fascinating platform for investigating and understanding the collect...
Abstract—The effects of quasi-ballistic and quantum transport on the operation and the performance o...
carbon nanotubes. The energy band structure of a carbon nanotube may ordinarily be obtained by “zone...
We introduce a quantum Monte Carlo technique to calculate exactly at finite temperatures the Green f...
The dynamics of electrons governed by the Coulomb interaction determines a large portion of the obse...
We show how lattice Quantum Monte Carlo simulations can be used to calculate electronic properties o...
We show how lattice quantum Monte Carlo can be applied to the electronic properties of carbon nanotu...
Fifty years ago Walter Kohn speculated that a zero-gap semiconductor might be unstable against the s...
We revisit the problem of the correlation gap in $(n,n)$ armchair carbon nanotubes, that would be me...
The Mott insulating state is a manifestation of strong electron interactions in nominally metallic s...
In the present work we study the electronic transport properties of finite length single-wall carbon...
Carbon nanotubes have excellent potential as basic building blocks for nanometer scale electron devi...
Investigating the influence of disorder on electron transport is difficult for very large systems. T...
11 pages, 5 figuresWe develop a method for calculating the fundamental electronic gap of semiconduct...
Since the advent of nanoscale material based electronic devices, there has been a considerable inter...
One dimensional systems offer a fascinating platform for investigating and understanding the collect...
Abstract—The effects of quasi-ballistic and quantum transport on the operation and the performance o...
carbon nanotubes. The energy band structure of a carbon nanotube may ordinarily be obtained by “zone...
We introduce a quantum Monte Carlo technique to calculate exactly at finite temperatures the Green f...
The dynamics of electrons governed by the Coulomb interaction determines a large portion of the obse...