多铁性材料应用于生产的可能性与前景

B. Khlopov, N. P. Kolesnikov, G. Andreev, V. Shashurin, S. Meshkov
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摘要

对多铁质材料的研究是为了将其应用于无线电电子信息设备的工业生产[1]。研究表明,基于嵌入磁性纳米颗粒的二氧化硅微球的有序结构代表了以晶体多铁质纳米团簇(FeTi205、FeTiO3型的铁、锰和钴钛酸盐)的3D晶格形式实现多铁质材料的最有趣的选择之一,其结果在文章[2]的材料中提出。这种材料的磁导率在磁共振条件下存在负实部的可能性是毫无疑问的。一组作者进行的实验表明,外场可以显著改变这类纳米材料的特性[3]-[5],并使它们能够用于有前途的REA开发。基于前人开发的技术合成多铁性和多铁性材料,制备高质量的蛋白石硅结构纳米球晶格填料[6],研究此类材料的电磁、介电、光学、磁性等性质,具有重要的应用前景,例如:允许找出在何种条件下这类多铁性介质可以用于创建有效的控制电磁场的电子信息设备。
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The Possibility and Prospects for Using Multiferroic Materials in the Production
Research of multiferroid materials was conducted for the purpose of their possible use in industrial production for radio-electronic information devices [1]. It is shown that ordered structures based on silica microspheres with embedded magnetic nanoparticles represent one of the most interesting options for implementing multiferroid materials in the form of a 3D lattice of nanoclusters of crystalline multiferroics (iron, manganese and cobalt titanates of the FeTi205, FeTiO3 type), the results of which are presented in the materials of the article [2]. The possibility of the existence of a negative real part of the magnetic permeability of such materials under magnetic resonance conditions is not in doubt. Experiments conducted by a group of authors have shown that external fields can significantly change the characteristics of this class of nanomaterials [3]–[5] and allow them to be used in promising REA developments. Synthesis of multiferroic and multiferroic materials based on previously developed technologies to produce high-quality lattice packings of nanospheres of silica structure of opal SiT2 [6], and study of electromagnetic, dielectric, optical, magnetic and other properties of such materials is of great importance due to the prospects of their application, for example, allowed to find out the conditions under which this class of multiferroic media can be used in the creation of an effective electronic information devices that control electromagnetic fields.
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