Extendibility of NiPt silicide to the 22-nm node CMOS technology
Kazuya Ohuchi, Christian Lavoie, et al.
IWJT 2008
This paper tracks the scaling of total chip power at constant frequency (i.e., energy-per-operation) through the last few CMOS nodes. The focus is on high-performance microprocessors. To evaluate the progression of chip power, Intel's Core-i7 (Intel's highest performance consumer microprocessor manufactured in the highest performance CMOS technology node) was used as the benchmark. Core-i7 has been manufactured for eight generations starting in the 45-nm node and continuing through the 14++ node. This paper argues that in the more recent nodes, the total chip power at constant frequency (energy-per-operation) has scaled much less than that of the earlier CMOS nodes. The early 14-nm technology exhibited particularly poor power scaling, and in fact, the technology was improved by increasing the device current and relaxation of the contacted gate pitch in 14++. Early product data in 10 nm points to issue in dropping the chip power (at constant frequency) relative to the previous node (14++), which may challenge the power-performance justification for scaling to the 10 nm node and beyond. Improving chip power scaling (energy-per-operation) in upcoming nodes is critical as a key part of the value proposition for continued CMOS scaling, especially as applied to high-performance microprocessors.
Kazuya Ohuchi, Christian Lavoie, et al.
IWJT 2008
Sufi Zafar, Christopher P. D’Emic, et al.
ACS Nano
Jin Cai, Tak Ning, et al.
IEEE International SOI Conference 2008
Pouya Hashemi, Jeng-Bang Yau, et al.
S3S 2017