Strained Si Channel MOSFETs with Embedded Silicon Carbon Formed by Solid Phase Epitaxy

Current drive enhancement is demonstrated in sub-40 nm NFETs with strained silicon carbon (Si:C) source and drain using a novel solid-phase epitaxy (SPE) technique for the first time. The very simple process uses no recess etch or epi deposition steps, adds minimal process cost, and can be easily in...

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Hauptverfasser: Yaocheng Liu, Gluschenkov, O., Jinghong Li, Madan, A., Ozcan, A., Byeong Kim, Dyer, T., Chakravarti, A., Chan, K., Lavoie, C., Popova, I., Pinto, T., Rovedo, N., Zhijiong Luo, Loesing, R., Henson, W., Ken Rim
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creator Yaocheng Liu
Gluschenkov, O.
Jinghong Li
Madan, A.
Ozcan, A.
Byeong Kim
Dyer, T.
Chakravarti, A.
Chan, K.
Lavoie, C.
Popova, I.
Pinto, T.
Rovedo, N.
Zhijiong Luo
Loesing, R.
Henson, W.
Ken Rim
description Current drive enhancement is demonstrated in sub-40 nm NFETs with strained silicon carbon (Si:C) source and drain using a novel solid-phase epitaxy (SPE) technique for the first time. The very simple process uses no recess etch or epi deposition steps, adds minimal process cost, and can be easily integrated into a standard CMOS process. With a record high 1.65 at% substitutional C concentration in source and drain, 615 MPa uniaxial tensile stress was introduced in the channel, leading to a 35% improvement in electron mobility and 6% and 15% current drive increase in sub-40 and 200 nm channel length devices respectively.
doi_str_mv 10.1109/VLSIT.2007.4339720
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source IEEE Electronic Library (IEL) Conference Proceedings
subjects Electron beams
Electron mobility
Epitaxial growth
mobility and solid phase epitaxy
MOSFET
MOSFETs
Silicon
silicon carbon
Solids
Strain control
strained Si
Stress measurement
Tensile strain
Tensile stress
title Strained Si Channel MOSFETs with Embedded Silicon Carbon Formed by Solid Phase Epitaxy
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