T
Tze-Liang Lee
Researcher at TSMC
Publications - 101
Citations - 1906
Tze-Liang Lee is an academic researcher from TSMC. The author has contributed to research in topics: Layer (electronics) & Gate oxide. The author has an hindex of 25, co-authored 101 publications receiving 1843 citations.
Papers
More filters
Patent
FinFET with bottom SiGe layer in source/drain
TL;DR: In this article, the authors describe a FinFET with a substrate, a fin structure on the substrate and a drain in the fin structure, a channel between the source and the drain, and a gate over the gate dielectric layer.
Proceedings ArticleDOI
A 16nm FinFET CMOS technology for mobile SoC and computing applications
Shien-Yang Wu,Lin Chih-Yung,M.C. Chiang,Jhon-Jhy Liaw,Joy Cheng,S.H. Yang,Liang Min-Chang,T. Miyashita,C.H. Tsai,B. C. Hsu,H. Y. Chen,T. Yamamoto,S.Y. Chang,Vincent S. Chang,C.H. Chang,J.H. Chen,Hou-Yu Chen,Kai-Yuan Ting,Y.K. Wu,K.H. Pan,R.F. Tsui,C.H. Yao,P. R. Chang,H. M. Lien,Tze-Liang Lee,H. M. Lee,W. Chang,T. Chang,R. Chen,M. Yeh,Chun-Kuang Chen,Yuan-Hung Chiu,Y. H. Chen,H. C. Huang,Y. C. Lu,Chang Chih-Yang,Ming-Huan Tsai,C. C. Liu,Kuei-Shun Chen,C. C. Kuo,H. T. Lin,S. M. Jang,Y. Ku +42 more
TL;DR: This is the smallest fully functional 128Mb HD FinFET SRAM (with single fin) test-chip demonstrated with low Vccmin for 16nm node and provides 2X logic density and 2X speed gain over 28nm HK/MG planar technology.
Patent
MOS Devices with Partial Stressor Channel
TL;DR: In this article, a semiconductor structure is defined, and a stressor has a tilted sidewall on a side adjacent the gate electrode and a second layer has a third lattice constant substantially different from the first and the second lattice constants.
Patent
Method for selectively stressing MOSFETs to improve charge carrier mobility
TL;DR: In this article, a strained channel MOSFET device with improved charge mobility and method for forming the same, the method including providing a first gate with a first semiconductor conductive type on a substrate; forming a first strained layer with first type of stress on said first gate; and, forming a second strained layer, with a second type of stressed on said second gate.
Proceedings ArticleDOI
5nm CMOS Production Technology Platform featuring full-fledged EUV, and High Mobility Channel FinFETs with densest 0.021µm 2 SRAM cells for Mobile SoC and High Performance Computing Applications
Geoffrey Yeap,X. Chen,B. R. Yang,C. P. Lin,F. C. Yang,Y. K. Leung,Derek Lin,C. P. Chen,K. F. Yu,D. H. Chen,Chun-Yen Chang,S.S. Lin,Huan-Neng Chen,P. Hung,Chuan-Ping Hou,Cheng Yun-Wei,Jonathan Chang,L. Yuan,Chung-Kai Lin,Chun-Kuang Chen,Yee-Chia Yeo,Ming-Huan Tsai,Yung-Shun Chen,Hsien-Chin Lin,C. O. Chui,Kevin Huang,W. Chang,Hon-Jarn Lin,Kuang-Hsin Chen,R. Chen,S. H. Sun,Q. Fu,H. T. Yang,H. L. Shang,H. T. Chiang,C. C. Yeh,Tze-Liang Lee,C. H. Wang,S. L. Shue,C. W. Wu,Ryan Lu,Wei-Heng Lin,Jau-Yi Wu,F. L. Lai,Po-Kang Wang,Yung-Hsien Wu,B. Z. Tien,Y. C. Huang,L. C. Lu,Jun He,Y. Ku,Jing-Cheng Lin,M. Cao,T. S. Chang,S. M. Jang,H. C. Lin,Yung-Chow Peng,Jyh-Cherng Sheu,Ming-Fang Wang +58 more
TL;DR: The 5nm platform technology successfully passed qualification with consistently high yielding 256Mb HD/HC SRAM, and large logic test chip consisting of CPU/GPU/SoC blocks, on schedule for high volume production in 1H 2020.