We have developed 100 nm node CMOS technology, consisting of a 65 nm gate length and a 1.6 nm gate oxide thickness. The major transistor design issue is how to maintain drive current at supply voltage of only 1.0 V, while suppressing standby leakage current to a practical level for system-on-a-chip applications. In order to obtain thinner electrical equivalent oxide thickness with well-suppressed gate leakage current, we have adopted radical nitridation and poly-SiGe. We have also utilized low-energy ion-implantation, low-temperature CVD, and spike RTA technology to overcome the short channel effect. With supply voltage of 1.0 V, our generic transistor shows the drive current of 520/196 µA/µm with the off current of 0.5 nA/µm. We also designed high-speed (Ioff=5 nA/µm), ultrahigh-speed (Ioff=30 nA/µm) transistors, and low-standby power (Ioff=5 pA/µm), all of which can be deployed on the same chip.
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Kiyotaka IMAI, Atsuki ONO, "A 100 nm Node CMOS Technology for System-on-a-Chip Applications" in IEICE TRANSACTIONS on Electronics,
vol. E85-C, no. 5, pp. 1057-1063, May 2002, doi: .
Abstract: We have developed 100 nm node CMOS technology, consisting of a 65 nm gate length and a 1.6 nm gate oxide thickness. The major transistor design issue is how to maintain drive current at supply voltage of only 1.0 V, while suppressing standby leakage current to a practical level for system-on-a-chip applications. In order to obtain thinner electrical equivalent oxide thickness with well-suppressed gate leakage current, we have adopted radical nitridation and poly-SiGe. We have also utilized low-energy ion-implantation, low-temperature CVD, and spike RTA technology to overcome the short channel effect. With supply voltage of 1.0 V, our generic transistor shows the drive current of 520/196 µA/µm with the off current of 0.5 nA/µm. We also designed high-speed (Ioff=5 nA/µm), ultrahigh-speed (Ioff=30 nA/µm) transistors, and low-standby power (Ioff=5 pA/µm), all of which can be deployed on the same chip.
URL: https://global.ieice.org/en_transactions/electronics/10.1587/e85-c_5_1057/_p
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@ARTICLE{e85-c_5_1057,
author={Kiyotaka IMAI, Atsuki ONO, },
journal={IEICE TRANSACTIONS on Electronics},
title={A 100 nm Node CMOS Technology for System-on-a-Chip Applications},
year={2002},
volume={E85-C},
number={5},
pages={1057-1063},
abstract={We have developed 100 nm node CMOS technology, consisting of a 65 nm gate length and a 1.6 nm gate oxide thickness. The major transistor design issue is how to maintain drive current at supply voltage of only 1.0 V, while suppressing standby leakage current to a practical level for system-on-a-chip applications. In order to obtain thinner electrical equivalent oxide thickness with well-suppressed gate leakage current, we have adopted radical nitridation and poly-SiGe. We have also utilized low-energy ion-implantation, low-temperature CVD, and spike RTA technology to overcome the short channel effect. With supply voltage of 1.0 V, our generic transistor shows the drive current of 520/196 µA/µm with the off current of 0.5 nA/µm. We also designed high-speed (Ioff=5 nA/µm), ultrahigh-speed (Ioff=30 nA/µm) transistors, and low-standby power (Ioff=5 pA/µm), all of which can be deployed on the same chip.},
keywords={},
doi={},
ISSN={},
month={May},}
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TY - JOUR
TI - A 100 nm Node CMOS Technology for System-on-a-Chip Applications
T2 - IEICE TRANSACTIONS on Electronics
SP - 1057
EP - 1063
AU - Kiyotaka IMAI
AU - Atsuki ONO
PY - 2002
DO -
JO - IEICE TRANSACTIONS on Electronics
SN -
VL - E85-C
IS - 5
JA - IEICE TRANSACTIONS on Electronics
Y1 - May 2002
AB - We have developed 100 nm node CMOS technology, consisting of a 65 nm gate length and a 1.6 nm gate oxide thickness. The major transistor design issue is how to maintain drive current at supply voltage of only 1.0 V, while suppressing standby leakage current to a practical level for system-on-a-chip applications. In order to obtain thinner electrical equivalent oxide thickness with well-suppressed gate leakage current, we have adopted radical nitridation and poly-SiGe. We have also utilized low-energy ion-implantation, low-temperature CVD, and spike RTA technology to overcome the short channel effect. With supply voltage of 1.0 V, our generic transistor shows the drive current of 520/196 µA/µm with the off current of 0.5 nA/µm. We also designed high-speed (Ioff=5 nA/µm), ultrahigh-speed (Ioff=30 nA/µm) transistors, and low-standby power (Ioff=5 pA/µm), all of which can be deployed on the same chip.
ER -