Analysis of charge-trapping effects in ultra-low current metal–oxide–semiconductor–oxide–semiconductor devices

In this paper, we present the study of charge-trapping effects in ultra-low current metal–oxide–semiconductor–oxide–semiconductor structures. We fabricated the Al/SiOx/a-Si/SiOx/n++ Si devices using low-temperature processes with various oxide thicknesses and performed electrical characterization. Discharging current transient spectroscopy was used to analyze the charge-trapping effects. This allowed us to identify the trap levels and corresponding trap densities within the material stack. The presented analysis shows that we can distinguish multiple trap levels in the investigated structures, and the appropriate model can accurately describe the transient behavior of the observed discharging current. We show that the presented methodology is very useful for analyzing traps, obtaining information for evaluating the device properties, and optimizing the technology of charge-trapping memories.

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Publication Details

Journal
AIP Advances
Published
2025-09-01
DOI
https://doi.org/10.1063/5.0259827
Primary Topic
Semiconductor materials and devices
Type
article
Field-Weighted Citation Impact
0.00

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article

Analysis of charge-trapping effects in ultra-low current metal–oxide–semiconductor–oxide–semiconductor devices

Piotr Wiśniewski, Michał Jarosik, Piotr Jeżak
AIP Advances
Semiconductor materials and devices
article

Analysis of charge-trapping effects in ultra-low current metal–oxide–semiconductor–oxide–semiconductor devices

Piotr Wiśniewski, Michał Jarosik, Piotr Jeżak
article en

Abstract

In this paper, we present the study of charge-trapping effects in ultra-low current metal–oxide–semiconductor–oxide–semiconductor structures. We fabricated the Al/SiOx/a-Si/SiOx/n++ Si devices using low-temperature processes with various oxide thicknesses and performed electrical characterization. Discharging current transient spectroscopy was used to analyze the charge-trapping effects. This allowed us to identify the trap levels and corresponding trap densities within the material stack. The presented analysis shows that we can distinguish multiple trap levels in the investigated structures, and the appropriate model can accurately describe the transient behavior of the observed discharging current. We show that the presented methodology is very useful for analyzing traps, obtaining information for evaluating the device properties, and optimizing the technology of charge-trapping memories.

AIP AdvancesVol. 15(9)
Warsaw University of Technology (PL), Institute of Microelectronics (CN), Advanced Materials and Technologies (Slovenia) (SI)
Politechnika Warszawska
Openalex Percentile: Top 78%
Semiconductor materials and devices
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