Hole and electron mobilities in CMOS structures are significantly influenced by a mechanical strain state. In the present work a new experimental device has been designed, able to apply a uniaxial in-plane strain along different crystallographic orientations. A hole mobility enhancement of +10% and an electron mobility decrease of -5% have been demonstrated with the application of a 0.05% compressive strain; a hole mobility enhancement of +2% and an electron mobility decrease of -3% have been induced into the material with the application of a 0.05% compressive strain
The electron mobility was found to increase (decrease) upon applied compressive (tensile) strain, re...
International audienceSiN contact etch stop layers (CESL) and recessed SiGe sources/drains are two u...
Abstract—This letter provides an experimental assessment of temperature dependence of mobility for a...
Hole and electron mobilities in CMOS structures are significantly influenced by a mechanical strain ...
The hole mobility characteristics of 〈110〉 /(100)-oriented asymmetrically strained-SiGe p-MOSFETs ar...
We evaluated amorphous silicon thin-film transistors under uniaxial compressive strain of up to 1%. ...
International audienceContinuous CMOS improvement has been achieved in recent years through strain e...
As in Si CMOS, the incorporation of mechanical strain offers the possibility of improving the perfor...
We applied strain ranging from 1% compressive to ∼0.3% tensile to a-Si:H TFTs on polyimide foils by ...
Whilst the high electron mobility of compound semiconductors makes them attractive for beyond 22 nm ...
Strain techniques, such as incorporating SiGe, should boost performance in future generations of CMO...
ical gate oxide, 45-nm gate length, strained silicon, NiSi, seven layers of Cu interconnects, and lo...
Abstract. A semi analytical model describing the bulk mobility for holes in strained-p-Si layers as ...
peer reviewedDifferent methods to introduce strain in thin silicon device layers are presented. Unia...
Different methods to introduce strain in thin silicon device layers are presented. Uniaxial strain i...
The electron mobility was found to increase (decrease) upon applied compressive (tensile) strain, re...
International audienceSiN contact etch stop layers (CESL) and recessed SiGe sources/drains are two u...
Abstract—This letter provides an experimental assessment of temperature dependence of mobility for a...
Hole and electron mobilities in CMOS structures are significantly influenced by a mechanical strain ...
The hole mobility characteristics of 〈110〉 /(100)-oriented asymmetrically strained-SiGe p-MOSFETs ar...
We evaluated amorphous silicon thin-film transistors under uniaxial compressive strain of up to 1%. ...
International audienceContinuous CMOS improvement has been achieved in recent years through strain e...
As in Si CMOS, the incorporation of mechanical strain offers the possibility of improving the perfor...
We applied strain ranging from 1% compressive to ∼0.3% tensile to a-Si:H TFTs on polyimide foils by ...
Whilst the high electron mobility of compound semiconductors makes them attractive for beyond 22 nm ...
Strain techniques, such as incorporating SiGe, should boost performance in future generations of CMO...
ical gate oxide, 45-nm gate length, strained silicon, NiSi, seven layers of Cu interconnects, and lo...
Abstract. A semi analytical model describing the bulk mobility for holes in strained-p-Si layers as ...
peer reviewedDifferent methods to introduce strain in thin silicon device layers are presented. Unia...
Different methods to introduce strain in thin silicon device layers are presented. Uniaxial strain i...
The electron mobility was found to increase (decrease) upon applied compressive (tensile) strain, re...
International audienceSiN contact etch stop layers (CESL) and recessed SiGe sources/drains are two u...
Abstract—This letter provides an experimental assessment of temperature dependence of mobility for a...