In this paper for the first time we study the impact of self-heating on the statistical variability of bulk and SOI FinFETs designed to meet the requirements of the 14/16nm technology node. The simulations are performed using the GSS ‘atomistic’ simulator GARAND using an enhanced electro-thermal model that takes into account the impact of the fin geometry on the thermal conductivity. In the simulations we have compared the statistical variability obtained from full-scale electro-thermal simulations with the variability at uniform room temperature and at the maximum or average temperatures obtained in the electro-thermal simulations. The combined effects of line edge roughness and metal gate granularity are taken into account. Th...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
In this paper, it is shown that self-heating causes a gigantic effect on the capacitances of MOSFETs...
This contribution discusses Self-Heating effects in different SOI MOS architectures by 3-D electroth...
This contribution discusses Self-Heating effects in different SOI MOS architectures by 3-D electroth...
This contribution discusses Self-Heating effects in different SOI MOS architectures by 3-D electroth...
In this work, the self-heating effect (SHE) on metal gate multiple-fin SOT FinFETs is studied by ado...
SOI FinFETs and other Gate-all-around (GAA) transistors topologies have excellent 3-D electrostatic ...
The GSS `atomistic' simulator GARAND has been enhanced with a thermal simulation module to investiga...
This paper presents a detailed thermal analysis of nanoscale FinFET devices. A three-dimensional ele...
This paper presents a detailed thermal analysis of nanoscale FinFET devices. A three-dimensional ele...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
In this work, we study the impact of device self heating on Bulk and doublegate si...
In this work, we study the impact of device self heating on Bulk and doublegate si...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
In this paper, it is shown that self-heating causes a gigantic effect on the capacitances of MOSFETs...
This contribution discusses Self-Heating effects in different SOI MOS architectures by 3-D electroth...
This contribution discusses Self-Heating effects in different SOI MOS architectures by 3-D electroth...
This contribution discusses Self-Heating effects in different SOI MOS architectures by 3-D electroth...
In this work, the self-heating effect (SHE) on metal gate multiple-fin SOT FinFETs is studied by ado...
SOI FinFETs and other Gate-all-around (GAA) transistors topologies have excellent 3-D electrostatic ...
The GSS `atomistic' simulator GARAND has been enhanced with a thermal simulation module to investiga...
This paper presents a detailed thermal analysis of nanoscale FinFET devices. A three-dimensional ele...
This paper presents a detailed thermal analysis of nanoscale FinFET devices. A three-dimensional ele...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
In this work, we study the impact of device self heating on Bulk and doublegate si...
In this work, we study the impact of device self heating on Bulk and doublegate si...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
The systematically growing power (heat) dissipation in CMOS transistors with each successive technol...
In this paper, it is shown that self-heating causes a gigantic effect on the capacitances of MOSFETs...