Nano Science and Technology Institute - NSTI  
Nano Science and Technology Institute   Home | Subscribe | Site Map  
  ABOUT | COURSES | EVENTS | PUBLICATIONS | LEADERSHIP | OUTREACH | NEWS | PRESS | JOBS | Nanotechnology Solutions
px
px fade_top
Publications
Nanotech 2008 CDROM
Nanotech 2007 CDROM
Nanotech 2006 CDROM
Nanotech 2005 CDROM
Nanotech 2004 CDROM
3 CDROM Special Offer
Nanotech 2008 Vol. 1
Nanotech 2008 Vol. 2
Nanotech 2008 Vol. 3
Nanotech 2007 Vol. 1
Nanotech 2007 Vol. 2
Nanotech 2007 Vol. 3
Nanotech 2007 Vol. 4
Nanotech 2006 Vol. 1
Nanotech 2006 Vol. 2
Nanotech 2006 Vol. 3
Nanotech 2005 Vol. 1
Nanotech 2005 Vol. 2
Nanotech 2005 Vol. 3
WCM 2005
Nanotech 2004 Vol. 1
Nanotech 2004 Vol. 2
Nanotech 2004 Vol. 3
Nanotech 2003 Vol. 1
Nanotech 2003 Vol. 2
Nanotech 2003 Vol. 3
Nanotech 2002 Vol. 1
Nanotech 2002 Vol. 2
Nanotech 2001 Vol. 1
Nanotech 2001 Vol. 2
MSM 2000
MSM 99
MSM 98
Index of Authors
Index of Keywords
Index of Affiliations
Library Request Form
Shopping Cart
Order Form
 
Publications Publications
Nanotech 2004 Vol. 1
p
 
Technical Proceedings of the 2004 NSTI Nanotechnology Conference and Trade Show, Volume 1
Nanotech 2004 Vol. 1
Technical Proceedings of the 2004 NSTI Nanotechnology Conference and Trade Show, Volume 1
 
Chapter 11: Wafer and MEMS Processing
 

Process Factors in the Reduction of Output Conductance in Sub-micron CMOS

Authors:N.C. May, H.S. Tan and A.V. Kordesch
Affilation:SILTERRA (M) SDN BHD, MY
Pages:477 - 480
Keywords:output conductance, early voltage, DIBL, Rout, channel engineering
Abstract:CMOS Analog circuits require transistors with low output conductance (gds) in order to achieve high gain. Submicron MOSFETs with halo implants and retrograde wells are designed to have high transconductance (gm) but often suffer from poor output conductance. In this paper we investigated the process factors affecting gds and we show how to optimize gds. Our experimental results from 180nm CMOS are compared with 2D simulations in order to understand the mechanisms involved. Output conductance is the derivative of the ID-VD curve, gds = dID/dVD. In saturation, several effects contribute to the increase of ID with VD, namely channel length modulation (CLM), drain-induced barrier lowering (DIBL), and substrate current body effect (SCBE). We have mainly focused on PMOS transistors at voltages where the substrate current is not significant.
ISBN:0-9728422-7-6
Pages:521
Hardcopy:$150.00
 
Order:Mail/Fax Form
Special:3 CD Set — 15% off with Free Shipping
Up
nanoPRwire™
nanoPRwire
News Headlines
nano World news
 
 
 
 
px
© Nano Science and Technology Institute     About NSTI | Terms of Use | Privacy Policy | Contact