DocumentCode
969851
Title
Hole and electron current transport in metal-oxide-nitride-oxide-silicon memory structures
Author
Suzuki, Eiichi ; Miura, Katsuhiro ; Hayasi, Yutaka ; Tsay, Re-Peng ; Schroder, Dieter K.
Author_Institution
Electrotech. Lab., Ibaraki, Japan
Volume
36
Issue
6
fYear
1989
fDate
6/1/1989 12:00:00 AM
Firstpage
1145
Lastpage
1149
Abstract
The carrier transport properties in metal-oxide (top oxide) nitride-oxide (tunnel oxide) silicon (MONOS) memory structures have been investigated in steady-state conditions under negative gate bias voltage. Carriers were separated into holes and electrons utilizing an induced junction of the p-channel MONOS transistors. Two-carrier transport is confirmed in the structure at negative gate polarity. It is found that the relatively thick top oxide acts as a potential barrier to the holes injected from the Si into the thin nitride. It is also found that a portion of the electrons injected from the gate at negative gate polarity recombine with the holes injected from the Si even in such a thin nitride and/or at the top-oxide/nitride interface
Keywords
EPROM; insulated gate field effect transistors; integrated memory circuits; metal-insulator-semiconductor devices; semiconductor device models; silicon compounds; MONOS; carrier transport properties; electron current transport; hole current transport; induced junction; metal-oxide-nitride-oxide-silicon memory structures; negative gate bias voltage; negative gate polarity; p-channel MONOS transistors; potential barrier; steady-state conditions; thick top oxide; tunnel oxide; two carrier transport; Charge carrier processes; Fluid flow measurement; Laboratories; Low voltage; MONOS devices; Radiative recombination; Silicon; Solid state circuits; Spontaneous emission; Steady-state;
fLanguage
English
Journal_Title
Electron Devices, IEEE Transactions on
Publisher
ieee
ISSN
0018-9383
Type
jour
DOI
10.1109/16.24360
Filename
24360
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