From binary to quinary: The rationale and development of GaInAsSbBi for mid- and long-wave infrared sensing applications

Given the added complexity in flux calibration and composition evaluation inherent to quinary alloy growth, what motivates compounding the challenges of III–V-Bi growth with the goal of producing a quinary alloy of GaInAsSbBi for mid- and long-wave infrared sensing applications? Each elemental constituent provides some additional design freedom to achieve the ultimate goal of producing a lattice-matched, bulk random alloy mid-wave infrared III–V material with smooth surface morphology and high optoelectronic quality to enable high performance elevated operating temperatures. This paper reviews the evolution of Bi-containing semiconductor research, focusing on mid- and long-wave infrared materials and highlighting key research findings that motivated the decisions to accept the added complexity in going from binaries like InAs or InSb, to InAsBi, to InAsSbBi, and, finally, to GaInAsSbBi to meet the performance demands of advanced infrared sensing applications.

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Publication Details

Journal
Journal of Vacuum Science & Technology A Vacuum Surfaces and Films
Published
2026-03-09
DOI
https://doi.org/10.1116/6.0005345
Primary Topic
Advanced Semiconductor Detectors and Materials
Type
article
Field-Weighted Citation Impact
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article

From binary to quinary: The rationale and development of GaInAsSbBi for mid- and long-wave infrared sensing applications

Joshua M. Duran, A. T. Newell, Gamini Ariyawansa, Aaron J. Muhowski et al.
Journal of Vacuum Science & Technology A Vacuum Surfaces and Films
Advanced Semiconductor Detectors and Materials
article

From binary to quinary: The rationale and development of GaInAsSbBi for mid- and long-wave infrared sensing applications

Joshua M. Duran, A. T. Newell, Gamini Ariyawansa, Aaron J. Muhowski, Zinah M. Alsaad, Marko S. Milosavljevic, Julie V. Logan, S. R. Johnson, Rigo A. Carrasco, Diana Maestas, Ganesh Balakrishnan, C. P. Morath, P. T. Webster
article en

Abstract

Given the added complexity in flux calibration and composition evaluation inherent to quinary alloy growth, what motivates compounding the challenges of III–V-Bi growth with the goal of producing a quinary alloy of GaInAsSbBi for mid- and long-wave infrared sensing applications? Each elemental constituent provides some additional design freedom to achieve the ultimate goal of producing a lattice-matched, bulk random alloy mid-wave infrared III–V material with smooth surface morphology and high optoelectronic quality to enable high performance elevated operating temperatures. This paper reviews the evolution of Bi-containing semiconductor research, focusing on mid- and long-wave infrared materials and highlighting key research findings that motivated the decisions to accept the added complexity in going from binaries like InAs or InSb, to InAsBi, to InAsSbBi, and, finally, to GaInAsSbBi to meet the performance demands of advanced infrared sensing applications.

Journal of Vacuum Science & Technology A Vacuum Surfaces and FilmsVol. 44(3)
United States Air Force Research Laboratory (US), University of New Mexico (US), Wright-Patterson Air Force Base (US), Kirtland Air Force Base (US), Sandia National Laboratories (US), Arizona State University (US)
Openalex Percentile: Top 30%
Advanced Semiconductor Detectors and Materials
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