Ionizing radiation defects and reliability of Gallium Nitride-based III-V semiconductor devices: A comprehensive review

The remote sensing and satellite community working for space organizations have expressed interest in building advanced devices with potential choices for Gallium Nitride based transistors. Radar and satellite communication applications employ nitride High Electron Mobility Transistors (HEMTs) due t...

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Bibliographic Details
Published inMicroelectronics and reliability Vol. 159; p. 115445
Main Authors Sandeep, V., Pravin, J. Charles, Kumar, S. Ashok
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 01.08.2024
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Summary:The remote sensing and satellite community working for space organizations have expressed interest in building advanced devices with potential choices for Gallium Nitride based transistors. Radar and satellite communication applications employ nitride High Electron Mobility Transistors (HEMTs) due to their high radiation-absorbing and temperature tolerant qualities. However, they also deteriorate simultaneously upon such radiations that cause a drastic fall in their lifetimes. This article carries out reliability studies of GaN-based III-V semiconductor devices, including HEMTs, Schottky and thin film diodes by reviewing the defects induced by radiation. A review of the various kinds of defects induced in these devices upon subject to several radiation beams like proton, neutron, gamma, alpha, and other sources has been discussed here. GaN, when subject to high energy ionizing radiation particles, produce point defects in the material that are more dominated by extended disordered regions. Trap states also occur as a part of radiation damage with forbidden gaps consisting of deep thermal ionization energies, which causes the device’s mobility and electrical conductivity to decrease drastically. A short description on how these defects can be mitigated to a certain extent has been given, eying towards more withstanding capabilities for these devices in radiation-hardened environments. •A study into the effects of GaN III-V devices upon ionizing radiation is given.•Effects such as TID, DD and SEE have been investigated comprehensively.•Deficiencies like vacancies, trap state formations, has been addressed.•Certain variables, like fields and contact resistance, show less noticeable shift.•GaN’s ability in controlling high energy radiation-hard devices is also reviewed.
ISSN:0026-2714
1872-941X
DOI:10.1016/j.microrel.2024.115445