Zobrazeno 1 - 5
of 5
pro vyhledávání: '"J. Greg Massey"'
Publikováno v:
2021 IEEE Microelectronics Design & Test Symposium (MDTS).
Many IC thermal simulations use only a small volume due to machine/EDA tool constraints. This work presents a thermal TCAD simulation methodology on a large-scale 7nm circuit using available thermal TCAD tools. The circuit model is based on a 3 x 3 a
Autor:
Nilufa Rahim, Stew Rauch, Yanfeng Wang, Fen Chen, J. Greg Massey, Joe Lukaitis, Michael J. Hauser, Ernest Y. Wu, Paul A. Hyde, Steve Mittl, Sudesh Saroop, Ann Swift, Dimitris P. Ioannou
Publikováno v:
2012 IEEE International Reliability Physics Symposium (IRPS).
The reliability characterization of a high performance 32nm SOI CMOS technology featuring gate first High-K Metal Gate and embedded High-K Metal Fill DRAM is presented. This technology features high performance 0.9V thin dielectric devices and 1.5V t
Autor:
Kai Zhao, D. Badami, Eduard A. Cartier, Rahul M. Rao, R. Bolam, K. Das, Dimitris P. Ioannou, Aditya Bansal, Barry Linder, John M. Aitken, J. Greg Massey, Steven W. Mittl, G. La Rosa, Jae-Joon Kim, Michael J. Hauser, James H. Stathis
Publikováno v:
2011 International Reliability Physics Symposium.
A robust reliability characterization / modeling approach for accurately predicting Bias Temperature Instability (BTI) induced circuit performance degradation in High-k Metal Gate (HKMG) CMOS is presented. A series of device level stress experiments
Autor:
G. Braceras, M. Khare, D. Turner, Baozhen Li, Ernest Y. Wu, J. Greg Massey, Jordi Suñé, Ann Swift, S. Tous, M. Johnson, R. Bolam
Publikováno v:
2009 IEEE International Electron Devices Meeting (IEDM).
Based on fundamental understanding of oxide breakdown (BD) physics established for thin oxides, we demonstrate that product circuit malfunction such as SRAM V min failure due to intrinsic TDDB can be accurately predicted. This prediction is based on
Autor:
I. Yang, F. Zhang, A. Tilke, P. Wrschka, Y.-H. Lin, J. Lian, P. Nguyen, V. Ramanchandran, Gregory M. Johnson, L.S. Leong, Atul C. Ajmera, A. Ebert, S.O. Kim, H. Zhuang, M.-C. Sun, J.-P. Kim, Andy Cowley, Christopher V. Baiocco, J.-H. Ku, W. Lin, J. Greg Massey, Alvin G. Thomas, M. Naujok, A. Vayshenker, G. Leake, A. Fischer, M. Sherony, E. Kaltalioglu, K. Hooper, Dirk Vietzke, C. Griffin, Y.-W. Teh, W. Gao, J. Sudijohno, Manfred Eller, Randy W. Mann, G. Matusiewicz, Y.K. Siew, T. Schiml, Renee T. Mo, S.-M. Choi, R. Knoefler, W.L. Tan, J. Benedict, T. Pompl, J.-H. Yang, F.F. Jamin, Fernando Guarin, K.C. Park, K.-W. Lee, An L. Steegen, Jae-Eun Park, S. Scheer, V. Klee, D.H. Hong, L. Tai, V. Ku, S.L. Liew
Publikováno v:
IEEE InternationalElectron Devices Meeting, 2005. IEDM Technical Digest..
This paper presents a 65nm low power technology offering a dual gate oxide process, multiple Vt devices at a nominal operating voltage of 1.2V, a nine level hierarchical Cu interconnect back-end of line process with low k dielectrics and 0.676mum2 an