Experimental progress in freestanding oxide membranes designed by epitaxy

Transition metal oxides are renowned for a plethora of functional properties of both scientific and technological implications. Recent advances in freestanding oxide membranes have introduced many opportunities for oxide materials inaccessible by bulk crystals and thin films. The advent of new low-d...

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Main Authors: Varun Harbola, Ruijuan Xu, Seung Sae Hong
Format: Article
Language:English
Published: Taylor & Francis Group 2025-12-01
Series:Advances in Physics: X
Subjects:
Online Access:https://www.tandfonline.com/doi/10.1080/23746149.2025.2450538
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author Varun Harbola
Ruijuan Xu
Seung Sae Hong
author_facet Varun Harbola
Ruijuan Xu
Seung Sae Hong
author_sort Varun Harbola
collection DOAJ
description Transition metal oxides are renowned for a plethora of functional properties of both scientific and technological implications. Recent advances in freestanding oxide membranes have introduced many opportunities for oxide materials inaccessible by bulk crystals and thin films. The advent of new low-dimensional oxide materials, leveraging both precise epitaxial design and the flexibility of freestanding geometries, offers a unique platform for tuning strain, engineering heterointerfaces, and enabling novel device architectures. In this article, we highlight key experimental progress in the field, spanning from innovative materials synthesis to emerging device applications.
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series Advances in Physics: X
spelling doaj-art-f0e2ae1e2c1d485dba1c38c4094e63ec2025-01-18T07:40:59ZengTaylor & Francis GroupAdvances in Physics: X2374-61492025-12-0110110.1080/23746149.2025.2450538Experimental progress in freestanding oxide membranes designed by epitaxyVarun Harbola0Ruijuan Xu1Seung Sae Hong2Department of Solid State Quantum Electronics, Max Planck Institute of Solid State Research, Stuttgart, GermanyDepartment of Materials Science and Engineering, North Carolina State University, Raleigh, NC, USADepartment of Materials Science and Engineering, University of California, Davis, CA, USATransition metal oxides are renowned for a plethora of functional properties of both scientific and technological implications. Recent advances in freestanding oxide membranes have introduced many opportunities for oxide materials inaccessible by bulk crystals and thin films. The advent of new low-dimensional oxide materials, leveraging both precise epitaxial design and the flexibility of freestanding geometries, offers a unique platform for tuning strain, engineering heterointerfaces, and enabling novel device architectures. In this article, we highlight key experimental progress in the field, spanning from innovative materials synthesis to emerging device applications.https://www.tandfonline.com/doi/10.1080/23746149.2025.2450538Complex oxideoxide membraneoxide epitaxy
spellingShingle Varun Harbola
Ruijuan Xu
Seung Sae Hong
Experimental progress in freestanding oxide membranes designed by epitaxy
Advances in Physics: X
Complex oxide
oxide membrane
oxide epitaxy
title Experimental progress in freestanding oxide membranes designed by epitaxy
title_full Experimental progress in freestanding oxide membranes designed by epitaxy
title_fullStr Experimental progress in freestanding oxide membranes designed by epitaxy
title_full_unstemmed Experimental progress in freestanding oxide membranes designed by epitaxy
title_short Experimental progress in freestanding oxide membranes designed by epitaxy
title_sort experimental progress in freestanding oxide membranes designed by epitaxy
topic Complex oxide
oxide membrane
oxide epitaxy
url https://www.tandfonline.com/doi/10.1080/23746149.2025.2450538
work_keys_str_mv AT varunharbola experimentalprogressinfreestandingoxidemembranesdesignedbyepitaxy
AT ruijuanxu experimentalprogressinfreestandingoxidemembranesdesignedbyepitaxy
AT seungsaehong experimentalprogressinfreestandingoxidemembranesdesignedbyepitaxy