With the help of a multiconfigurational Green's function approach we simulate single-electron Coulomb charging effects in gated ultimately scaled nanostructures which are beyond the scope of a self-consistent mean-field description. From the simulated Coulomb-blockade characteristics we derive effective system capacitances and demonstrate how quantum confinement effects give rise to corrections. Such deviations are crucial for the interpretation of experimentally determined capacitances and the extraction of application-relevant system parameters
We report for the first time a quantum mechanical simulation study of gate capacitance components in...
We study a system of two symmetrical capacitively coupled quantum dots, each coupled to its own meta...
106 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 1993.In this thesis, the significa...
3-D nonequilibrium Green’s function simulations reveal the presence of oscillations of gate capacita...
We employ a novel multiconfigurational self-consistent Green's function approach (MCSCG) for the sim...
We have studied the capacitance between two parallel plates enclosing a quantum confined system and ...
In the past two decades, significant progress in constructing physical systems of reduced dimension...
As the physical dimensions of a transistor gate continue to shrink to a few atoms, performance can b...
We employ a novel multiconfigurational self-consistent Green\u27s function approach (MCSCG) for the ...
In this paper, we combine the modified electrostatics of a one-dimensional transistor structure with...
Although it has long been known that the classical notions of capacitance need modification at the n...
In this paper, a physics-based compact model for calculating the semiconductor charges and gate capa...
In state-of-the-art devices, it is well known that quantum and Coulomb effects play signif-icant rol...
Expressions for the “quantum capacitance ” are derived, and regimes are discussed in which this conc...
In this work an experimental study has been set out to quantify the impact of quantum confinement ef...
We report for the first time a quantum mechanical simulation study of gate capacitance components in...
We study a system of two symmetrical capacitively coupled quantum dots, each coupled to its own meta...
106 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 1993.In this thesis, the significa...
3-D nonequilibrium Green’s function simulations reveal the presence of oscillations of gate capacita...
We employ a novel multiconfigurational self-consistent Green's function approach (MCSCG) for the sim...
We have studied the capacitance between two parallel plates enclosing a quantum confined system and ...
In the past two decades, significant progress in constructing physical systems of reduced dimension...
As the physical dimensions of a transistor gate continue to shrink to a few atoms, performance can b...
We employ a novel multiconfigurational self-consistent Green\u27s function approach (MCSCG) for the ...
In this paper, we combine the modified electrostatics of a one-dimensional transistor structure with...
Although it has long been known that the classical notions of capacitance need modification at the n...
In this paper, a physics-based compact model for calculating the semiconductor charges and gate capa...
In state-of-the-art devices, it is well known that quantum and Coulomb effects play signif-icant rol...
Expressions for the “quantum capacitance ” are derived, and regimes are discussed in which this conc...
In this work an experimental study has been set out to quantify the impact of quantum confinement ef...
We report for the first time a quantum mechanical simulation study of gate capacitance components in...
We study a system of two symmetrical capacitively coupled quantum dots, each coupled to its own meta...
106 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 1993.In this thesis, the significa...