Realizing Giant Spin-Selective Reflection based on a Chiral Meta-structure Operating in the Visible-Infrared Regime
Asif Ali, Syeda Rida Tahir, Muhammad Adnan

TL;DR
This paper presents a metasurface design that achieves broadband giant spin-selective reflection and chiroptical effects in the visible and infrared regimes, with potential applications in spectroscopy and optical devices.
Contribution
It introduces a novel chiral metasurface that produces multiband giant spin-selective reflection with moderate chirality across broadband wavelengths.
Findings
Achieves large spin-selective reflection coefficients in broadband visible-IR range.
Demonstrates multiband giant chiroptical effects in reflection mode.
Provides a new approach for broadband Spin Hall Effect with low loss.
Abstract
The spin-selective reflection to introduce chirality which can have a lot of applications in real life such as spectroscopy, optical setups, media industry etc. In this paper, a reflection based metasurface proposed to introduce the giant chiroptical effects at broadband visible and infrared (IR) regimes. The optimization and results of basic unit also termed as nanostructure are demonstrated here. The reflectance at the optimal parameters for the proposed nanostructure shows the inclusion of multiband giant chiroptical effects in reflection mode. The results show that this metasurface can elicit large spin-selective reflection coefficients with moderate chirality covering the broadband wavelength. The circular dichroism in the visible and IR regime shows its potential applicability for a lot of applications in our daily life. This work also provides a new approach to achieve giant Spin…
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Taxonomy
TopicsMetamaterials and Metasurfaces Applications · Advanced Antenna and Metasurface Technologies · Electromagnetic Scattering and Analysis
