Atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications

A vast body of knowledge on the structure and properties of hexagonal ferrites has been accumulated in the last sixty years driven in part by the technological significance of these materials in diverse applications, such as permanent magnets, microwave devices, and magnetic recording media. In this...

Full description

Bibliographic Details
Published:
Online Access:http://hdl.handle.net/2047/d20005068
id ndltd-NEU--neu-336709
record_format oai_dc
spelling ndltd-NEU--neu-3367092021-05-26T05:09:58ZAtomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applicationsA vast body of knowledge on the structure and properties of hexagonal ferrites has been accumulated in the last sixty years driven in part by the technological significance of these materials in diverse applications, such as permanent magnets, microwave devices, and magnetic recording media. In this work, the Alternating Target Laser Ablation Deposition (ATLAD) technique is applied in the growth of epitaxial hexagonal ferrite films. As a result, unique magnetic properties, including 50 degrees increase in the Néel temperature and 20% increase in the saturation magnetization compared to conventionally prepared materials, are realized by controlling the cation distribution at the atomic scale.http://hdl.handle.net/2047/d20005068
collection NDLTD
sources NDLTD
description A vast body of knowledge on the structure and properties of hexagonal ferrites has been accumulated in the last sixty years driven in part by the technological significance of these materials in diverse applications, such as permanent magnets, microwave devices, and magnetic recording media. In this work, the Alternating Target Laser Ablation Deposition (ATLAD) technique is applied in the growth of epitaxial hexagonal ferrite films. As a result, unique magnetic properties, including 50 degrees increase in the Néel temperature and 20% increase in the saturation magnetization compared to conventionally prepared materials, are realized by controlling the cation distribution at the atomic scale.
title Atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications
spellingShingle Atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications
title_short Atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications
title_full Atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications
title_fullStr Atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications
title_full_unstemmed Atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications
title_sort atomic scale design and control of cation distribution in hexagonal ferrites for passive and tunable microwave magnetic device applications
publishDate
url http://hdl.handle.net/2047/d20005068
_version_ 1719406245197119488