We present a first-principles Liouville-von Neumann equation for open systems. The time-dependent holographic electron density theorem which is the foundation for our formalism is introduced. Approximation schemes for practical simulations are given. In order to demonstrate the applicability of our formalism, a realistic simulation of a simple molecular device system is presented and discussed. © 2012 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim.link_to_subscribed_fulltex
An approximate method based on adiabatic time dependent density functional the-ory (TDDFT) is presen...
Abstract. A mathematical and numerical framework has been worked out to represent the density operat...
An approximate method based on adiabatic time dependent density functional theory (TDDFT) is present...
With our proof of the holographic electron density theorem for time-dependent systems, a first-princ...
We present the time-dependent holographic electron density theorem (TD-HEDT), which lays the foundat...
First principles simulations of electronic quantum transport through nanostructured materials have b...
We prove that the electron density function of a real physical system can be uniquely determined by ...
We have developed a rigorous TDDFT formalism for open systems. It is based on the equation of motion...
A parameter-free version of the recently developed driven Liouville-von Neumann equation [T. Zelovic...
Electronic devices are downsizing at a rapid pace and since the 1990s, single molecules have been st...
The rapid miniaturization of electronic devices motivates research interests in quantum transport. R...
We prove that the electron density function of a real physical system can be uniquely determined by ...
Basing on our hierarchical equations of motion for time-dependent quantum transport [X. Zheng, G. H....
We present a computationally tractable scheme of time-dependent transport phenomena within open-boun...
In this work a practical scheme is developed for the first-principles study of time-dependent quantu...
An approximate method based on adiabatic time dependent density functional the-ory (TDDFT) is presen...
Abstract. A mathematical and numerical framework has been worked out to represent the density operat...
An approximate method based on adiabatic time dependent density functional theory (TDDFT) is present...
With our proof of the holographic electron density theorem for time-dependent systems, a first-princ...
We present the time-dependent holographic electron density theorem (TD-HEDT), which lays the foundat...
First principles simulations of electronic quantum transport through nanostructured materials have b...
We prove that the electron density function of a real physical system can be uniquely determined by ...
We have developed a rigorous TDDFT formalism for open systems. It is based on the equation of motion...
A parameter-free version of the recently developed driven Liouville-von Neumann equation [T. Zelovic...
Electronic devices are downsizing at a rapid pace and since the 1990s, single molecules have been st...
The rapid miniaturization of electronic devices motivates research interests in quantum transport. R...
We prove that the electron density function of a real physical system can be uniquely determined by ...
Basing on our hierarchical equations of motion for time-dependent quantum transport [X. Zheng, G. H....
We present a computationally tractable scheme of time-dependent transport phenomena within open-boun...
In this work a practical scheme is developed for the first-principles study of time-dependent quantu...
An approximate method based on adiabatic time dependent density functional the-ory (TDDFT) is presen...
Abstract. A mathematical and numerical framework has been worked out to represent the density operat...
An approximate method based on adiabatic time dependent density functional theory (TDDFT) is present...