The results of modeling of electron transfer processes in a three-dimensional semiconductor structure containing a single layer of graphene using the Monte-Carlo method are presented. The use of graphene, which has a high mobility of charge carriers, high thermal conductivity and a number of other positive properties, is promising for the creation of new semiconductor devices with good output characteristics . As a result of modeling, the dependences of the velocity, average energy, mobility, diffusion coefficient on the structure length and electric field intensity in a semiconductor structure containing a graphene layer and a region of a 4H-SiC silicon carbide material are obtained
The single-particle Monte Carlo simulation for the electron transport in semiconductor devices is pr...
The aim of this thesis is the study of electronic transport and mechanical properties of materials u...
There is a growing consensus in the electron device community that the 32nm node could be the last t...
The results of simulation of electron transfer processes in a single graphene layer on a SiC substra...
This paper presents the results of simulating the electron transfer processes in a three-dimensional...
The results of the simulation of electron transfer processes in the three-dimensional structure of 4...
The use of graphene, which has high mobility of charge carriers, high thermal conductivity and a num...
The results of simulation of the electron scattering rates in a single graphene layer without substr...
This thesis is largely based on my papers on numerical and analytical mod- eling of graphene-based d...
In this thesis, we investigate charge transport in graphene. Graphene is one of the most important n...
We analyze doping of graphene grown on SiC in two models which differ by the source of charge transf...
The contribution is mainly related to advanced problems in Monte Carlo simulations. The first sectio...
The electronic transport properties of graphene and suspended (intrinsic) graphene sheets are studie...
WOS: 000378873900087The electronic transport properties of graphene and suspended (intrinsic) graphe...
Hall effect measurements on epitaxial graphene (EG) on SiC substrate have been carried out as a func...
The single-particle Monte Carlo simulation for the electron transport in semiconductor devices is pr...
The aim of this thesis is the study of electronic transport and mechanical properties of materials u...
There is a growing consensus in the electron device community that the 32nm node could be the last t...
The results of simulation of electron transfer processes in a single graphene layer on a SiC substra...
This paper presents the results of simulating the electron transfer processes in a three-dimensional...
The results of the simulation of electron transfer processes in the three-dimensional structure of 4...
The use of graphene, which has high mobility of charge carriers, high thermal conductivity and a num...
The results of simulation of the electron scattering rates in a single graphene layer without substr...
This thesis is largely based on my papers on numerical and analytical mod- eling of graphene-based d...
In this thesis, we investigate charge transport in graphene. Graphene is one of the most important n...
We analyze doping of graphene grown on SiC in two models which differ by the source of charge transf...
The contribution is mainly related to advanced problems in Monte Carlo simulations. The first sectio...
The electronic transport properties of graphene and suspended (intrinsic) graphene sheets are studie...
WOS: 000378873900087The electronic transport properties of graphene and suspended (intrinsic) graphe...
Hall effect measurements on epitaxial graphene (EG) on SiC substrate have been carried out as a func...
The single-particle Monte Carlo simulation for the electron transport in semiconductor devices is pr...
The aim of this thesis is the study of electronic transport and mechanical properties of materials u...
There is a growing consensus in the electron device community that the 32nm node could be the last t...