Nanocolumnar ZnO/Fe Magnetic Composites

Composite ZnO/Fe nanostructured thin films are synthesized via physical vapor deposition using radio frequency magnetron sputtering in conventional, as well as in glancing angle deposition (GLAD) geometries. ZnO is employed as a compact nanocolumnar template to direct Fe growth in bilayer and multilayer architectures. Morphological analysis reveals well-defined ZnO/Fe interfaces for normal deposition geometry, with diminished interface clarity and reduced layer thickness in GLAD samples. Crystallographic characterization indicates clear ZnO-{002} and α-Fe-{110} texture. Magnetostatic characterization investigates the effects of morphology on coercivity and domain nucleation. GLAD-deposited Fe films exhibit clear in-plane magnetic anisotropy, with remanence to saturation magnetization (MREM/MSAT) equal to 1 for the easy axis and equal to 0.24 for the hard axis, consistent with inclined nanocolumn morphology. Our findings show that deposition geometry, rather the ZnO template, mostly affects the morphology of Fe films. The above, highlight the potential of engineered ZnO/Fe nanocomposites for magnetic, spintronic, and magnetoplasmonic applications, by tuning morphology and interface quality through deposition parameters.

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Publication Details

Journal
Magnetochemistry
Published
2026-04-01
DOI
https://doi.org/10.3390/magnetochemistry12040041
Primary Topic
Magnetic properties of thin films
Type
article
Field-Weighted Citation Impact
0.00

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article

Nanocolumnar ZnO/Fe Magnetic Composites

P. Poulopoulos, Andreas Kaidatzis, Nikolaos C. Diamantopoulos, María Garrido-Segovia et al.
Magnetochemistry
Magnetic properties of thin films
article

Nanocolumnar ZnO/Fe Magnetic Composites

P. Poulopoulos, Andreas Kaidatzis, Nikolaos C. Diamantopoulos, María Garrido-Segovia, José Miguel García-Martín, Dimitrios-Panagiotis Theodoropoulos
article en

Abstract

Composite ZnO/Fe nanostructured thin films are synthesized via physical vapor deposition using radio frequency magnetron sputtering in conventional, as well as in glancing angle deposition (GLAD) geometries. ZnO is employed as a compact nanocolumnar template to direct Fe growth in bilayer and multilayer architectures. Morphological analysis reveals well-defined ZnO/Fe interfaces for normal deposition geometry, with diminished interface clarity and reduced layer thickness in GLAD samples. Crystallographic characterization indicates clear ZnO-{002} and α-Fe-{110} texture. Magnetostatic characterization investigates the effects of morphology on coercivity and domain nucleation. GLAD-deposited Fe films exhibit clear in-plane magnetic anisotropy, with remanence to saturation magnetization (MREM/MSAT) equal to 1 for the easy axis and equal to 0.24 for the hard axis, consistent with inclined nanocolumn morphology. Our findings show that deposition geometry, rather the ZnO template, mostly affects the morphology of Fe films. The above, highlight the potential of engineered ZnO/Fe nanocomposites for magnetic, spintronic, and magnetoplasmonic applications, by tuning morphology and interface quality through deposition parameters.

MagnetochemistryVol. 12(4)
Universidad Complutense de Madrid (ES), University of Patras (GR), Institute of Micro and Nanotechnology (ES), Universidad Autónoma de Madrid (ES)
University of Patras, European Regional Development Fund, Agencia Estatal de Investigación
Sustainable cities and communities
Openalex Percentile: Top 31%
Magnetic properties of thin films
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