Ming-Feng Shieh
TSMC
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Publication
Featured researches published by Ming-Feng Shieh.
international electron devices meeting | 2009
Chang-Yun Chang; Tsung-Lin Lee; Clement Hsingjen Wann; Li-Shyue Lai; Hung-Ming Chen; Chih-Chieh Yeh; Chih-Sheng Chang; Chia-Cheng Ho; Jyh-Cherng Sheu; Tsz-Mei Kwok; Feng Yuan; Shao-Ming Yu; Chia-Feng Hu; Jeng-Jung Shen; Yi-Hsuan Liu; Chen-Ping Chen; Shin-Chih Chen; Li-Shiun Chen; Leo Chen; Yuan-Hung Chiu; Chu-Yun Fu; Ming-Jie Huang; Yu-Lien Huang; Shih-Ting Hung; Jhon-Jhy Liaw; Hsien-Chin Lin; Hsien-Hsin Lin; Li-te S. Lin; Shyue-Shyh Lin; Yuh-Jier Mii
FinFET is the most promising double-gate transistor architecture [1] to extend scaling over planar device. We present a high-performance and low-power FinFET module at 25 nm gate length. When normalized to the actual fin perimeter, N-FinFET and P-FinFET have 1200 and 915 µA/µm drive current respectively at 100nA/µm leakage under 1V. To our knowledge this is the best FinFET drive current at such scaled gate length. This scaled gate length enables this FinFET transistor for 32nm node insertion. With aggressive fin pitch scaling, the effective transistor width is approximately 1.9X and 2.7X over planar for typical logic and SRAM on the same layout area (i.e., silicon real estate). Due to superior electrostatics and reduced random dopant fluctuation, this high drive current can be readily traded with VDD scaling for low power.
international electron devices meeting | 2010
Chih-Chieh Yeh; Chih-Sheng Chang; Hong-Nien Lin; Wei-Hsiung Tseng; Li-Shyue Lai; Tsu-Hsiu Perng; Tsung-Lin Lee; Chang-Yun Chang; Liang-Gi Yao; Chia-Cheng Chen; Ta-Ming Kuan; Jeff J. Xu; Chia-Cheng Ho; Tzu-Chiang Chen; Shyue-Shyh Lin; Hun-Jan Tao; Min Cao; Chih-Hao Chang; Ting-Chu Ko; Neng-Kuo Chen; Shih-Cheng Chen; Chia-Pin Lin; Hsien-Chin Lin; Ching-Yu Chan; Hung-Ta Lin; Shu-Ting Yang; Jyh-Cheng Sheu; Chu-Yun Fu; Shih-Ting Hung; Feng Yuan
We show that FinFET, a leading transistor architecture candidate of choice for high performance CPU applications [1–3], can also be extended for general purpose SoC applications by proper device optimization. We demonstrate superior, best-in-its-class performance to our knowledge, as well as multi-Vt flexibility for low-operating power (LOP) applications. By high-k/metal-gate (HK/MG) and process flow optimizations, significant drive current (ION) improvement and leakage current (IOFF) reduction have been achieved through equivalent oxide thickness (EOT) scaling and carrier mobility improvement. N-FinFET and P-FinFET achieve, when normalized to Weff (Weff=2xHf+Wf), ION of 1325 µA/µm and 1000 µA/µm at 1 nA/µm leakage current under VDD of 1 V, and 960 uA/um and 690 uA/um at 1 nA/um under Vdd of 0.8V, respectively. This FinFET transistor module is promising for a 32/28nm SoC technology.
Archive | 2012
Clement Hsingjen Wann; Chih-Sheng Chang; Yi-Tang Lin; Ming-Feng Shieh; Ting-Chu Ko; Chung-Hsien Chen
Archive | 2010
Ming-Feng Shieh; Shinn-Sheng Yu; Anthony Yen; Shao-Ming Yu; Chang-Yun Chang; Jeff J. Xu; Clement Hsingjen Wann
Archive | 2009
Ming-Feng Shieh; Shinn-Sheng Yu; Anthony Yen; Ming-Ching Chang; Jeff J. Xu
Archive | 2010
Chien-Hsun Wang; Chih-Sheng Chang; Yi-Tang Lin; Ming-Feng Shieh
Archive | 2010
Chien-Hsun Wang; Chih-Sheng Chang; Ming-Feng Shieh
Archive | 2013
Ming-Feng Shieh; Chen-Yu Chen
Archive | 2012
Ming-Feng Shieh; Tsung-Lin Lee; Chang-Yun Chang
Archive | 2012
Shao-Ming Yu; Chang-Yun Chang; Chih-Hao Chang; Hsin-Chih Chen; Kai-Tai Chang; Ming-Feng Shieh; Kuei-Liang Lu; Yi-Tang Lin