Reduction of interface state density in SiC (0001) MOS structures by post-oxidation Ar annealing at high temperature

We found that post-oxidation Ar annealing at high temperature is effective in reducing the interface state density (D it) near the conduction band edge (E C) of SiC (0001) MOS structures. The D it reduction effect is comparable to that of nitridation process (annealing in nitric oxide (NO)) which ha...

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Published inAIP advances Vol. 7; no. 4; pp. 045008 - 045008-5
Main Authors Kobayashi, Takuma, Suda, Jun, Kimoto, Tsunenobu
Format Journal Article
LanguageEnglish
Published Melville American Institute of Physics 01.04.2017
AIP Publishing LLC
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ISSN2158-3226
2158-3226
DOI10.1063/1.4980024

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Abstract We found that post-oxidation Ar annealing at high temperature is effective in reducing the interface state density (D it) near the conduction band edge (E C) of SiC (0001) MOS structures. The D it reduction effect is comparable to that of nitridation process (annealing in nitric oxide (NO)) which has been a standard in SiC MOS technologies, without introducing any foreign atoms into the interface/oxide. The generation of fast interface states, which have been pointed out as a problem of nitridation process, is suppressed in the case of Ar annealing. In the proposed method, the final D it values are mainly determined by the Ar annealing temperature rather than the initial oxidation temperature. The D it values are not sensitive to the cooling speed, which means that rapid cooling is not necessary in the proposed method.
AbstractList We found that post-oxidation Ar annealing at high temperature is effective in reducing the interface state density (Dit) near the conduction band edge (EC) of SiC (0001) MOS structures. The Dit reduction effect is comparable to that of nitridation process (annealing in nitric oxide (NO)) which has been a standard in SiC MOS technologies, without introducing any foreign atoms into the interface/oxide. The generation of fast interface states, which have been pointed out as a problem of nitridation process, is suppressed in the case of Ar annealing. In the proposed method, the final Dit values are mainly determined by the Ar annealing temperature rather than the initial oxidation temperature. The Dit values are not sensitive to the cooling speed, which means that rapid cooling is not necessary in the proposed method.
We found that post-oxidation Ar annealing at high temperature is effective in reducing the interface state density (D it) near the conduction band edge (E C) of SiC (0001) MOS structures. The D it reduction effect is comparable to that of nitridation process (annealing in nitric oxide (NO)) which has been a standard in SiC MOS technologies, without introducing any foreign atoms into the interface/oxide. The generation of fast interface states, which have been pointed out as a problem of nitridation process, is suppressed in the case of Ar annealing. In the proposed method, the final D it values are mainly determined by the Ar annealing temperature rather than the initial oxidation temperature. The D it values are not sensitive to the cooling speed, which means that rapid cooling is not necessary in the proposed method.
Author Kobayashi, Takuma
Suda, Jun
Kimoto, Tsunenobu
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Snippet We found that post-oxidation Ar annealing at high temperature is effective in reducing the interface state density (D it) near the conduction band edge (E C)...
We found that post-oxidation Ar annealing at high temperature is effective in reducing the interface state density (Dit) near the conduction band edge (EC) of...
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StartPage 045008
SubjectTerms Annealing
Conduction bands
Cooling rate
Density
High temperature
Nitric oxide
Oxidation
Reduction
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Title Reduction of interface state density in SiC (0001) MOS structures by post-oxidation Ar annealing at high temperature
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