S
Subhash M. Joshi
Researcher at Intel
Publications - 29
Citations - 2771
Subhash M. Joshi is an academic researcher from Intel. The author has contributed to research in topics: Fin & Transistor. The author has an hindex of 13, co-authored 29 publications receiving 2633 citations. Previous affiliations of Subhash M. Joshi include Duke University.
Papers
More filters
Proceedings ArticleDOI
A 45nm Logic Technology with High-k+Metal Gate Transistors, Strained Silicon, 9 Cu Interconnect Layers, 193nm Dry Patterning, and 100% Pb-free Packaging
Kaizad Mistry,C. Allen,C. Auth,B. Beattie,Daniel B. Bergstrom,M. Bost,M. Brazier,M. Buehler,Annalisa Cappellani,R. Chau,C. H. Choi,G. Ding,K. Fischer,Tahir Ghani,R. Grover,W. Han,D. Hanken,M. Hattendorf,J. He,J. Hicks,R. Huessner,D. Ingerly,Pulkit Jain,R. James,L. Jong,Subhash M. Joshi,C. Kenyon,K. Kuhn,K. Lee,Huichu Liu,J. Maiz,B. Mclntyre,P. Moon,J. Neirynck,S. Pae,C. Parker,D. Parsons,Chetan Prasad,L. Pipes,M. Prince,Pushkar Ranade,T. Reynolds,J. Sandford,Lucian Shifren,J. Sebastian,J. Seiple,D. Simon,Swaminathan Sivakumar,Pete Smith,C. Thomas,T. Troeger,P. Vandervoorn,S. Williams,K. Zawadzki +53 more
TL;DR: In this paper, a 45 nm logic technology is described that for the first time incorporates high-k + metal gate transistors in a high volume manufacturing process, resulting in the highest drive currents yet reported for NMOS and PMOS.
Proceedings ArticleDOI
A 22nm high performance and low-power CMOS technology featuring fully-depleted tri-gate transistors, self-aligned contacts and high density MIM capacitors
C. Auth,C. Allen,A. Blattner,Daniel B. Bergstrom,Mark R. Brazier,M. Bost,M. Buehler,V. Chikarmane,Tahir Ghani,Timothy E. Glassman,R. Grover,W. Han,D. Hanken,Michael L. Hattendorf,P. Hentges,R. Heussner,J. Hicks,D. Ingerly,Pulkit Jain,S. Jaloviar,Robert James,David Jones,J. Jopling,Subhash M. Joshi,C. Kenyon,Huichu Liu,R. McFadden,B. McIntyre,J. Neirynck,C. Parker,L. Pipes,Ian R. Post,S. Pradhan,M. Prince,S. Ramey,T. Reynolds,J. Roesler,J. Sandford,J. Seiple,Pete Smith,Christopher D. Thomas,D. Towner,T. Troeger,Cory E. Weber,P. Yashar,K. Zawadzki,Kaizad Mistry +46 more
TL;DR: In this paper, a 22nm generation logic technology is described incorporating fully-depleted tri-gate transistors for the first time, which provides steep sub-threshold slopes (∼70mV/dec) and very low DIBL ( ∼50m V/V).
Proceedings ArticleDOI
A 90 nm logic technology featuring 50 nm strained silicon channel transistors, 7 layers of Cu interconnects, low k ILD, and 1 /spl mu/m/sup 2/ SRAM cell
Scott E. Thompson,Nidhi Anand,Mark Armstrong,C. Auth,B. Arcot,Mohsen Alavi,P. Bai,J. Bielefeld,Robert M. Bigwood,J. Brandenburg,M. Buehler,Stephen M. Cea,V. Chikarmane,C. H. Choi,R. Frankovic,Tahir Ghani,G. Glass,W. Han,Thomas Hoffmann,Makarem A. Hussein,P. Jacob,Ajay Jain,Chia-Hong Jan,Subhash M. Joshi,C. Kenyon,Jason Klaus,S. Klopcic,J. Luce,Z. Ma,B. McIntyre,Kaizad Mistry,Anand Portland Murthy,P. Nguyen,H. Pearson,T. Sandford,R. Schweinfurth,R. Shaheed,Swaminathan Sivakumar,M. Taylor,B. Tufts,Charles H. Wallace,P.-H. Wang,Cory E. Weber,Mark T. Bohr +43 more
TL;DR: In this paper, a leading edge 90 nm technology with 1.2 nm physical gate oxide, 50 nm gate length, strained silicon, NiSi, 7 layers of Cu interconnects, and low k carbon-doped oxide (CDO) for high performance dense logic is presented.
Proceedings ArticleDOI
45nm High-k + metal gate strain-enhanced transistors
C. Auth,Annalisa Cappellani,J.-S. Chun,A. Dalis,Alison Davis,Tahir Ghani,G. Glass,Timothy E. Glassman,Michael K. Harper,Michael L. Hattendorf,P. Hentges,S. Jaloviar,Subhash M. Joshi,Jason Klaus,K. Kuhn,D. Lavric,M. Lu,H. Mariappan,Kaizad Mistry,B. Norris,Nadia M. Rahhal-Orabi,Pushkar Ranade,J. Sandford,Lucian Shifren,V. Souw,K. Tone,F. Tambwe,A. Thompson,D. Towner,T. Troeger,P. Vandervoorn,Charles H. Wallace,J. Wiedemer,Christopher J. Wiegand +33 more
TL;DR: In this article, two key process features that are used to make 45 nm generation metal gate + high-k gate dielectric CMOS transistors are highlighted in this paper.
Patent
Copper-containing C4 ball-limiting metallurgy stack for enhanced reliability of packaged structures and method of making same
TL;DR: In this paper, a ball-limiting metallurgy stack for an electrical device that contains at least one copper layer disposed upon a Ti adhesion metal layer was proposed, which resists Sn migration toward the upper metallization of the device.