From fundamentals to applications: The development of magnetoplasmonics for next-generation technologies

Rahulkumar Sunil Singh, Prashant K Sarswat
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引用次数: 2

Abstract

Magnetoplasmonics is an emerging interdisciplinary field that studies the interaction between magnetism and plasmonics, and has great promise for the development of novel optical, magnetic, and spintronic devices. The goal of this review is to provide a comprehensive overview of the current state-of-the-art in magnetoplasmonics, including the fundamentals, materials, and applications. The review first presents an introduction to the basic concepts of magnetoplasmonics, magneto-optical and plasmonic materials, and the various ways in which they can be combined to create novel hybrid systems. The review then examines the influence of surface plasmon resonances on the magneto-optical properties of a system as well as the achievement of balance of magneto-optical and surface plasmon properties to maximize the overall magnetoplasmonic properties. Selected major applications in biomedicine, biomedical technologies, optoelectronics and telecommunications are then discussed. Finally, it concludes with key challenges in the use of magnetoplasmonics in these applications, the need for new materials, new fabrication approaches, and further understanding to control the complex interactions between magnetism and plasmonics.

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从基础到应用:下一代磁等离子体学技术的发展
磁等离子体是一个新兴的跨学科领域,研究磁性和等离子体之间的相互作用,对开发新型光学、磁性和自旋电子器件有很大的前景。这篇综述的目的是全面概述磁等离子体的最新技术,包括基本原理、材料和应用。这篇综述首先介绍了磁等离子体、磁光和等离子体材料的基本概念,以及将它们结合起来创建新型混合系统的各种方式。然后,该综述考察了表面等离子体共振对系统磁光性质的影响,以及实现磁光和表面等离子体性质的平衡,以最大限度地提高整体磁等离子体性质。然后讨论了生物医学、生物医学技术、光电子和电信领域的一些主要应用。最后,它总结了在这些应用中使用磁等离子体的关键挑战,对新材料的需求,新的制造方法,以及对控制磁性和等离子体之间复杂相互作用的进一步理解。
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