High Field Performance of Si-Doped <i>n</i>-AlN Layers Grown Using Pulsed MOCVD

We report on the study of high-field performance of Si-doped n-AlN layers that were grown using a pulsed metalorganic chemical vapor deposition (PMOCVD) process. In the past we showed this pulsed doping approach to lead to doping efficiency superior to that in the conventional MOCVD process. Here using them as the drift layer for a quasi-vertical conduction Schottky barrier, we show their ability to withstand high reverse bias voltages and sustain an electrical field as high as 9.9 MV cm−1. Our study thus demonstrates the viability of the PMOCVD growth and doping approach to yield n-AlN layers suitable for high current-high voltage devices.

Authors

Publication Details

Journal
Scholar Commons (University of South Carolina)
Published
2025-06-24
DOI
https://doi.org/10.35848/1882-0786/ade41c">https://doi.org/10.35848/1882-0786/ade41c</a></p
Primary Topic
GaN-based semiconductor devices and materials
Type
article
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article

High Field Performance of Si-Doped n-AlN Layers Grown Using Pulsed MOCVD

G. Simin, Abdullah Al Mamun Mazumder, Tariq Jamil, Mafruda Rahman et al.
Scholar Commons (University of South Carolina)
GaN-based semiconductor devices and materials
article

High Field Performance of Si-Doped n-AlN Layers Grown Using Pulsed MOCVD

G. Simin, Abdullah Al Mamun Mazumder, Tariq Jamil, Mafruda Rahman, Asif Khan, Muhammad Haider Ali
article en

Abstract

We report on the study of high-field performance of Si-doped n-AlN layers that were grown using a pulsed metalorganic chemical vapor deposition (PMOCVD) process. In the past we showed this pulsed doping approach to lead to doping efficiency superior to that in the conventional MOCVD process. Here using them as the drift layer for a quasi-vertical conduction Schottky barrier, we show their ability to withstand high reverse bias voltages and sustain an electrical field as high as 9.9 MV cm−1. Our study thus demonstrates the viability of the PMOCVD growth and doping approach to yield n-AlN layers suitable for high current-high voltage devices.

Scholar Commons (University of South Carolina)
Openalex Percentile: Top 27%
GaN-based semiconductor devices and materials
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