金属-电介质杂化Au-ZnO纳米材料在红外区的磁响应

IF 2.2 Q3 MATERIALS SCIENCE, MULTIDISCIPLINARY Materials Letters: X Pub Date : 2023-06-01 DOI:10.1016/j.mlblux.2023.100201
B. Gopal Krishna , Dhriti Sundar Ghosh , Sanjay Tiwari
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引用次数: 0

摘要

从理论上研究了合成的光致发光和高介电性ZnO纳米结构作为超材料。通过在ZnO中引入金,形成Au-ZnO核壳纳米材料,增强了ZnO纳米材料的电响应和磁响应。利用Mie理论对ZnO纳米结构在近红外和远场频率区域的粒径进行优化研究。结果表明,优化后的Au-ZnO核壳纳米材料在近红外区域具有峰移的强光散射峰。与ZnO纳米粒子相比,由于金的表面等离子体特性,在近红外和远场频率区观察到Au-ZnO核壳纳米材料的强电和强磁模式。该结果为通过超材料技术设计不同光学应用的复杂介电材料铺平了道路。
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Magnetic response of metal–dielectric hybrid Au-ZnO nanomaterial in the infrared region

The synthesized photoluminescent and highly dielectric ZnO nanostructures are theoretically investigated as the metamaterial. Herein, the electric and magnetic responses of the ZnO nanomaterial are enhanced by introducing gold into ZnO to form Au-ZnO core–shell nanomaterial. The ZnO nanostructures are studied by optimizing their particle size in the near-infrared and far-field frequency region using Mie theory. The intense light scattering peaks with a peak shift for the Au-ZnO core–shell nanomaterial at the optimized particle size and particular wavelength in the near-infrared region are observed. A strong electric and magnetic pattern for the Au-ZnO core–shell nanomaterial is observed in the near-infrared and far-field frequency region as compared to the ZnO nanoparticles due to the surface plasmon property of the gold. The results pave the way for the design of complex dielectric materials for different optical applications through metamaterial technologies.

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来源期刊
CiteScore
3.10
自引率
0.00%
发文量
50
审稿时长
114 days
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