Process model for simulating the effect of amorphizing implants on phosphorus diffusion
Publication
, Journal Article
Fair, RB
Published in: Proceedings - The Electrochemical Society
December 1, 1990
A model is proposed to account for the effect of end-of-range (EOR) dislocations, produced by amorphizing implants, on the diffusion of phosphorus. It is shown that the location of EOR dislocations relative to the P profile is critical. For high concentration P, the location of EOR damage relative to the kink in the P profile determines the extent of retarded diffusion. EOR damage can also screen portions of the P profile from self-interstitials produced by oxidation of the Si surface or dissolution of self-interstitial clusters in the Si bulk. This model has been put into PREDICT and simulations compared to data with good results.
Duke Scholars
Published In
Proceedings - The Electrochemical Society
ISSN
0161-6374
Publication Date
December 1, 1990
Volume
90
Issue
7
Start / End Page
429 / 436
Citation
APA
Chicago
ICMJE
MLA
NLM
Fair, R. B. (1990). Process model for simulating the effect of amorphizing implants on phosphorus diffusion. Proceedings - The Electrochemical Society, 90(7), 429–436.
Fair, R. B. “Process model for simulating the effect of amorphizing implants on phosphorus diffusion.” Proceedings - The Electrochemical Society 90, no. 7 (December 1, 1990): 429–36.
Fair RB. Process model for simulating the effect of amorphizing implants on phosphorus diffusion. Proceedings - The Electrochemical Society. 1990 Dec 1;90(7):429–36.
Fair, R. B. “Process model for simulating the effect of amorphizing implants on phosphorus diffusion.” Proceedings - The Electrochemical Society, vol. 90, no. 7, Dec. 1990, pp. 429–36.
Fair RB. Process model for simulating the effect of amorphizing implants on phosphorus diffusion. Proceedings - The Electrochemical Society. 1990 Dec 1;90(7):429–436.
Published In
Proceedings - The Electrochemical Society
ISSN
0161-6374
Publication Date
December 1, 1990
Volume
90
Issue
7
Start / End Page
429 / 436