Unravelling and circumventing failure mechanisms in chalcogenide optical phase change materials

Fuente: arXiv
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Autori principali: Popescu, Cosmin Constantin, Aryana, Kiumars, Mills, Brian, Lee, Tae Woo, Martin-Monier, Louis, Ranno, Luigi, Sia, Jia Xu Brian, Dao, Khoi Phuong, Bae, Hyung-Bin, Liberman, Vladimir, Vitale, Steven, Kang, Myungkoo, Richardson, Kathleen A., Ocampo, Carlos A. Ríos, Calahan, Dennis, Zhang, Yifei, Humphreys, William M., Kim, Hyun Jung, Gu, Tian, Hu, Juejun
Natura: Preprint
Pubblicazione: 2024
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author Popescu, Cosmin Constantin
Aryana, Kiumars
Mills, Brian
Lee, Tae Woo
Martin-Monier, Louis
Ranno, Luigi
Sia, Jia Xu Brian
Dao, Khoi Phuong
Bae, Hyung-Bin
Liberman, Vladimir
Vitale, Steven
Kang, Myungkoo
Richardson, Kathleen A.
Ocampo, Carlos A. Ríos
Calahan, Dennis
Zhang, Yifei
Humphreys, William M.
Kim, Hyun Jung
Gu, Tian
Hu, Juejun
author_facet Popescu, Cosmin Constantin
Aryana, Kiumars
Mills, Brian
Lee, Tae Woo
Martin-Monier, Louis
Ranno, Luigi
Sia, Jia Xu Brian
Dao, Khoi Phuong
Bae, Hyung-Bin
Liberman, Vladimir
Vitale, Steven
Kang, Myungkoo
Richardson, Kathleen A.
Ocampo, Carlos A. Ríos
Calahan, Dennis
Zhang, Yifei
Humphreys, William M.
Kim, Hyun Jung
Gu, Tian
Hu, Juejun
contents Chalcogenide optical phase change materials (PCMs) have garnered significant interest for their growing applications in programmable photonics, optical analog computing, active metasurfaces, and beyond. Limited endurance or cycling lifetime is however increasingly becoming a bottleneck toward their practical deployment for these applications. To address this issue, we performed a systematic study elucidating the cycling failure mechanisms of Ge$_2$Sb$_2$Se$_4$Te (GSST), a common optical PCM tailored for infrared photonic applications, in an electrothermal switching configuration commensurate with their applications in on-chip photonic devices. We further propose a set of design rules building on insights into the failure mechanisms, and successfully implemented them to boost the endurance of the GSST device to over 67,000 cycles.
format Preprint
id arxiv_https___arxiv_org_abs_2409_12313
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Unravelling and circumventing failure mechanisms in chalcogenide optical phase change materials
Popescu, Cosmin Constantin
Aryana, Kiumars
Mills, Brian
Lee, Tae Woo
Martin-Monier, Louis
Ranno, Luigi
Sia, Jia Xu Brian
Dao, Khoi Phuong
Bae, Hyung-Bin
Liberman, Vladimir
Vitale, Steven
Kang, Myungkoo
Richardson, Kathleen A.
Ocampo, Carlos A. Ríos
Calahan, Dennis
Zhang, Yifei
Humphreys, William M.
Kim, Hyun Jung
Gu, Tian
Hu, Juejun
Optics
Materials Science
Chalcogenide optical phase change materials (PCMs) have garnered significant interest for their growing applications in programmable photonics, optical analog computing, active metasurfaces, and beyond. Limited endurance or cycling lifetime is however increasingly becoming a bottleneck toward their practical deployment for these applications. To address this issue, we performed a systematic study elucidating the cycling failure mechanisms of Ge$_2$Sb$_2$Se$_4$Te (GSST), a common optical PCM tailored for infrared photonic applications, in an electrothermal switching configuration commensurate with their applications in on-chip photonic devices. We further propose a set of design rules building on insights into the failure mechanisms, and successfully implemented them to boost the endurance of the GSST device to over 67,000 cycles.
title Unravelling and circumventing failure mechanisms in chalcogenide optical phase change materials
topic Optics
Materials Science
url https://arxiv.org/abs/2409.12313