D. Ventura, Antonio Gnudi, et al.
Applied Mathematics Letters
The spreading resistance due to current crowding at the end-points of an FET channel is investigated. An analytic expression is derived giving this resistance as function of a few parameters. TWO-dimensional numerical simulations, using finite-element techniques, confirm the accuracy of the simple analytical approach. For short channel devices the current crowding effect is found to give a non-negligible contribution to the total source resistance. In order to optimize the FET performance, the geometry and conductivity of the source/drain regions must be carefully designed, trading off short channel effect and transconductance degradation. Copyright © 1983 by The Institute of Electrical and Electronics Engineers, Inc.
D. Ventura, Antonio Gnudi, et al.
Applied Mathematics Letters
H. Sakaki, L.L. Chang, et al.
Applied Physics Letters
A. Deutsch, H. Smith, et al.
IEEE Topical Meeting EPEPS 1998
M.R. Wordeman, A.M. Schweighart, et al.
VLSI Technology 1983