Cytocompatible magnetostrictive microstructures for nano- and microparticle manipulation on linear strain response piezoelectrics

Q1 Materials Science
Zhuyun Xiao, Reem Khojah, M. Chooljian, R. Conte, J. Schneider, Kevin Fitzell, R. Chopdekar, Yilian Wang, A. Scholl, Jane P. Chang, G. Carman, J. Bokor, D. Di Carlo, R. Candler
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引用次数: 7

Abstract

In this work, we investigate polycrystalline Ni and FeGa magnetostrictive microstructures on pre-poled (011)-cut single crystal [Pb(Mg1/3Nb2/3)O3]1−x-[PbTiO3]x (PMN-PT, x ≈ 0.31) with linear strain profile versus applied electric field. Magnetostrictive microstructure arrays with various geometries are patterned on PMN-PT. Functionalized magnetic beads are trapped by localized stray fields originating from the microstructures. With an applied electric field, the magnetic domains are actuated, inducing the motion of the coupled particles with sub-micrometer precision. This work shows promise of using energy-efficient electric-field-controlled magnetostrictive micro- and nanostructures for manipulating magnetic beads via a linear strain response. The work also demonstrates the viability of cells suspended in solution on these structures when subject to applied electric fields, proving the cytocompatibility of the platform for live cell sorting applications.
线性应变响应压电材料的纳米和微粒操作的细胞相容磁致伸缩微结构
在这项工作中,我们研究了预极化(011)切割单晶[Pb(Mg1/3Nb2/3)O3]1−x-[PbTiO3]x(PMN-PT,x≈0.31)上的多晶Ni和FeGa磁致伸缩微观结构,其应变曲线与外加电场呈线性关系。在PMN-PT上图案化了具有各种几何形状的磁致伸缩微结构阵列。功能化的磁珠被源自微观结构的局部杂散场捕获。通过施加电场,磁畴被致动,从而以亚微米精度诱导耦合粒子的运动。这项工作显示了使用高能效电场控制的磁致伸缩微结构和纳米结构通过线性应变响应操纵磁珠的前景。这项工作还证明了悬浮在这些结构上的溶液中的细胞在受到电场作用时的生存能力,证明了该平台对活细胞分选应用的细胞相容性。
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
Multifunctional Materials
Multifunctional Materials Materials Science-Materials Science (miscellaneous)
CiteScore
12.80
自引率
0.00%
发文量
9
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