Investigation on microstructures and phases of Fe-Ga alloy films deposited by magnetron sputtering

Q4 Chemistry
Jian-wu Yan, Ran Zhao, Y. Cha, Qingpeng Li
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引用次数: 2

Abstract

Galfenol (Fe-Ga alloy), as a new magnetostrictive materials, has potentially wide applications in magnetostrictive devices. In this work, Fe-Ga alloy thin films were prepared by slice-style target magnetron sputtering and investigations on microstructures and phases of Fe-Ga alloy films were made to explore the relationship of properties and microstructures. The results show that the component of alloy thin film is related to physical properties of the material itself as well as the area ratio of the patch and target. The phase formed in the films in is disorderly A2 phase with face-centred cubic structure. The films prepared by magnetron sputtering exist in the form of polycrystalline with crystallographic texture perpendicular to the film plane. The structure shape of as-deposited specimens present a maze domain with different contrast and resolution and the magnetic domain decreased with the increase of the Ga content. With the increase of the Ga content, the magnetic domains become more and more irregular. Fe-Ga thin film morphology is related to the growth mode of the film. The microstructures of Fe-Ga alloy films can be controlled by magnetron sputtering technology.
磁控溅射制备Fe-Ga合金薄膜的显微组织和物相研究
Galfenol (Fe-Ga合金)作为一种新型的磁致伸缩材料,在磁致伸缩器件中有着广阔的应用前景。本文采用片式靶磁控溅射法制备了Fe-Ga合金薄膜,并对Fe-Ga合金薄膜的显微组织和物相进行了研究,探讨了薄膜性能与显微组织的关系。结果表明,合金薄膜的组成与材料本身的物理性质以及贴片与靶材的面积比有关。膜中形成的相为无序的A2相,具有面心立方结构。磁控溅射制备的薄膜以多晶形式存在,其晶体结构垂直于薄膜平面。沉积样品的结构形状呈不同对比度和分辨率的迷宫状,磁畴随Ga含量的增加而减小。随着Ga含量的增加,磁畴变得越来越不规则。Fe-Ga薄膜的形貌与薄膜的生长方式有关。磁控溅射技术可以控制Fe-Ga合金薄膜的微观结构。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
International Journal of Nano and Biomaterials
International Journal of Nano and Biomaterials Chemistry-Physical and Theoretical Chemistry
CiteScore
1.20
自引率
0.00%
发文量
0
期刊介绍: In recent years, frontiers of research in engineering, science and technology have been driven by developments in nanomaterials, encompassing a diverse range of disciplines such as materials science, biomedical engineering, nanomedicine and biology, manufacturing technology, biotechnology, nanotechnology, and nanoelectronics. IJNBM provides an interdisciplinary vehicle covering these fields. Advanced materials inspired by biological systems and processes are likely to influence the development of novel technologies for a wide variety of applications from vaccines to artificial tissues and organs to quantum computers. Topics covered include Nanostructured materials/surfaces/interfaces Synthesis of nanostructures Biological/biomedical materials Artificial organs/tissues Tissue engineering Bioengineering materials Medical devices Functional/structural nanomaterials Carbon-based materials Nanomaterials characterisation Novel applications of nanomaterials Modelling of behaviour of nanomaterials Nanomaterials for biomedical applications Biological response to nanomaterials.
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