Platinum–Copper Defects in Silicon

The interaction of interstitial Copper (Cui) with substitutional platinum impurities (Pts) in n‐type FZ silicon wafers is studied by deep level transient spectroscopy (DLTS) and Laplace DLTS. Copper is introduced into silicon, which is Pt doped during growth, using chemo‐mechanical polishing (CMP) a...

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Veröffentlicht in:Physica status solidi. A, Applications and materials science Applications and materials science, 2019-09, Vol.216 (17), p.n/a
Hauptverfasser: Kolkovsky, Valery, Kolkovsky, Vladimir, Weber, Jörg
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description The interaction of interstitial Copper (Cui) with substitutional platinum impurities (Pts) in n‐type FZ silicon wafers is studied by deep level transient spectroscopy (DLTS) and Laplace DLTS. Copper is introduced into silicon, which is Pt doped during growth, using chemo‐mechanical polishing (CMP) at room temperature in a copper‐contaminated slurry. After the CMP process, four new levels i.e., E80, E131, E147, and E271 are observed. These levels are only observed in Pt‐doped samples. From an analysis of the depth profiles of the new levels, it is ruled out, that the levels belong to different charge states of the same defect. The sum of concentrations of all depth profiles give a constant concentration of about 3 × 1014 cm−3, which corresponds to the total PtS concentration in the samples. Therefore, the new levels are attributed to several different defects which contain one substitutional Pt and several (1–4) interstitial Cu atoms. Cu is introduced into n‐type Si at room temperature from a polishing slurry. Interstitial Cu is shown to create new defects with a substitutional Pt. The electrical parameters of the defects are determined and tentatively identied with complexes of one substitutional Pt atom and n = 1 to 4 interstitial Cu atoms (PtS (Cui)n).
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Copper is introduced into silicon, which is Pt doped during growth, using chemo‐mechanical polishing (CMP) at room temperature in a copper‐contaminated slurry. After the CMP process, four new levels i.e., E80, E131, E147, and E271 are observed. These levels are only observed in Pt‐doped samples. From an analysis of the depth profiles of the new levels, it is ruled out, that the levels belong to different charge states of the same defect. The sum of concentrations of all depth profiles give a constant concentration of about 3 × 1014 cm−3, which corresponds to the total PtS concentration in the samples. Therefore, the new levels are attributed to several different defects which contain one substitutional Pt and several (1–4) interstitial Cu atoms. Cu is introduced into n‐type Si at room temperature from a polishing slurry. Interstitial Cu is shown to create new defects with a substitutional Pt. 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subjects Chemical-mechanical polishing
Copper
Deep level transient spectroscopy
Defects
Ions
Levels
Platinum
Silicon
Silicon wafers
Slurries
title Platinum–Copper Defects in Silicon
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