DocumentCode
1041186
Title
Numerical analysis of single event burnout of power MOSFETs
Author
Kuboyama, Satoshi ; Matsuda, Shodai ; Nakajima, Masato ; Kanno, Tooru ; Ishii, Takayuki
Author_Institution
Nat. Space Dev. Agency of Japan, Tsukuba-shi, Ibaraki-ken, Japan
Volume
40
Issue
6
fYear
1993
fDate
12/1/1993 12:00:00 AM
Firstpage
1872
Lastpage
1879
Abstract
The single event burnout (SEB) phenomenon of power MOSFETs has been analyzed using a numerical device simulator code. It is found that the vertical current along the ion track directly indices the forward bias state of the source/p-body junction. It is also found that the current is governed by the conductivity of the plasma column. For the second peak of the EPICS spectra, a position-independent charge collection mechanism was also explained by the vertical current along the ion track. Experimental data obtained with EPICS (energetic particle induced charge spectroscopy) were explained clearly. It was found that the avalanche multiplication was caused by the distortion of neutrality of the plasma column around the p-body/drain junction. Under the strong avalanche multiplication condition, it could be regenerative. The existence of QTH in EPICS spectra may be explained by the mechanism. The influence of the penetration range of the incident ions is discussed
Keywords
digital simulation; impact ionisation; insulated gate field effect transistors; ion beam effects; power transistors; semiconductor device models; EPICS spectra; avalanche multiplication; energetic particle induced charge spectroscopy; forward bias state; ion track; numerical device simulator code; penetration range; plasma column; power MOSFETs; single event burnout; source/p-body junction; vertical current; Analytical models; Conductivity; Discrete event simulation; MOSFETs; Numerical analysis; Numerical simulation; Plasma devices; Plasma simulation; Plasma sources; Spectroscopy;
fLanguage
English
Journal_Title
Nuclear Science, IEEE Transactions on
Publisher
ieee
ISSN
0018-9499
Type
jour
DOI
10.1109/23.273467
Filename
273467
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