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Stephen J. Pearton

Researcher at University of Florida

Publications -  1988
Citations -  62995

Stephen J. Pearton is an academic researcher from University of Florida. The author has contributed to research in topics: Dry etching & Etching (microfabrication). The author has an hindex of 104, co-authored 1913 publications receiving 58669 citations. Previous affiliations of Stephen J. Pearton include Kyungpook National University & University of Southern California.

Papers
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Electrical and structural analysis of high-dose Si implantation in GaN

TL;DR: It is found that Si implantation inGaN can achieve 50% activation at a dose of 1×1016 cm-2, despite significant residual damage after the 1100 °C activation anneal, which suggests that activation of implanted Si donors in GaN doses not require complete damage removal.
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Breakdown voltage and reverse recovery characteristics of free-standing GaN Schottky rectifiers

TL;DR: Schottky rectifiers with implanted p/sup +/ guard ring edge termination fabricated on free-standing GaN substrates show reverse breakdown voltages up to 160 V in vertical geometry devices.
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High-Performance Indium Gallium Zinc Oxide Transparent Thin-Film Transistors Fabricated by Radio-Frequency Sputtering

TL;DR: In this article, a-IGZO-based thin-film transistors based on amorphous indium gallium zinc oxide were fabricated by radiofrequency magnetron sputtering on glass substrates.
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Magnetic and structural properties of Co, Cr, V ion-implanted GaN

TL;DR: In this paper, the magnetic and structural properties of epitaxial metal organic chemical vapor deposition grown p-GaN:Mg/Al2O3 implanted with Co, Cr, and V ions at varying high doses at 350°C were investigated after a short anneal at 700 °C to remove implantation damage.
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Fabrication of p-channel thin-film transistors using CuO active layers deposited at low temperature

TL;DR: In this article, the authors investigated the use of copper oxides for active layer of p-channel field effect transistors (TFTs) in a p-type enhancement mode with an on/off ratio of ∼104 and field effect mobility of 0.4 cm2/V⋅s.