AbstractThis paper describes numerical methods for a quantum energy transport (QET) model in semiconductors, which is derived by using a diffusion scaling in the quantum hydrodynamic (QHD) model. We newly drive a four-moments QET model similar with a classical ET model. Space discretization is performed by a new set of unknown variables. Numerical stability and convergence are obtained by developing numerical schemes and an iterative solution method with a relaxation method. Numerical simulations of electron transport in a scaled MOSFET device are discussed. The QET model allows simulations of quantum confinement transport, and nonlocal and hot-carrier effects in scaled MOSFETs
AbstractA finite element method for numerical simulation of the transient quantum hydrodynamic model...
Abstract. The classical hydrodynamic equations can be extended to include quantum effects by incorpo...
A family of efficient quantum transport models for simulation of modern nanoscale devices is present...
AbstractThis paper describes numerical methods for a quantum energy transport (QET) model in semicon...
this paper, we are concerned with two modern semiconductor models: the energy-transport and the quan...
An extension of the classical hydrodynamic model for semiconductor devices to include quantum transp...
Abstract—This paper describes a new discretization scheme for quantum confinement transport simulati...
A model hierarchy of macroscopic models for quantum semiconductors is presented. Furthermore, a revi...
Due to the rapid decrease in device dimensions the well-established TCAD tools are pushed to the lim...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
Abstract. The existence of global-in-time weak solutions to a quantum energy-transport model for sem...
AbstractA finite element method for numerical simulation of the transient quantum hydrodynamic model...
Abstract. The classical hydrodynamic equations can be extended to include quantum effects by incorpo...
A family of efficient quantum transport models for simulation of modern nanoscale devices is present...
AbstractThis paper describes numerical methods for a quantum energy transport (QET) model in semicon...
this paper, we are concerned with two modern semiconductor models: the energy-transport and the quan...
An extension of the classical hydrodynamic model for semiconductor devices to include quantum transp...
Abstract—This paper describes a new discretization scheme for quantum confinement transport simulati...
A model hierarchy of macroscopic models for quantum semiconductors is presented. Furthermore, a revi...
Due to the rapid decrease in device dimensions the well-established TCAD tools are pushed to the lim...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
In this paper, we propose a unified framework for Quantum-corrected drift-diffusion (QCDD) models in...
Abstract. The existence of global-in-time weak solutions to a quantum energy-transport model for sem...
AbstractA finite element method for numerical simulation of the transient quantum hydrodynamic model...
Abstract. The classical hydrodynamic equations can be extended to include quantum effects by incorpo...
A family of efficient quantum transport models for simulation of modern nanoscale devices is present...