Topological Photonics and Axion Electrodynamics

A special issue of Physics (ISSN 2624-8174). This special issue belongs to the section "Applied Physics".

Deadline for manuscript submissions: closed (15 February 2021) | Viewed by 8988

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School of Engineering and Information Technology, University of New South Wales Canberra, Northcott Drive, Campbell, ACT 2600, Australia
Interests: nanophotoncis; nonlinear optics; optoelectronics; light-matter interaction; fano resonances
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Department of Electrical Engineering, City College of New York, New York, NY, USA
Interests: photonics; optical nanosturctures; metamaterials

Special Issue Information

Dear Colleagues,

Topological properties play a fundamental role in many physical phenomena. One of the examples is the recently discovered novel phase of matter called topological insulators. These unique materials can be characterized by a new organizational principle known as a topological order. The discovery of the quantum spin Hall insulator and topological insulators has spawned much interest and activity in the study of nontrivial topological phases in solid state physics. However, realizing nontrivial topological phases in other systems is of great importance from the fundamental point of view as it would allow studying peculiarities of these exotic states of matter under directly engineered experimental conditions. While the ongoing research of the topological insulators is entirely focused on electronic systems, there has been a recent emergence of interest in exploring topological orders with photons. A new class of photonic states of matter, such as photonic topological insulator, is emerging, and they will be used for emulating condensed matter systems in a simple and controllable way. Emulating numerous and exciting manifestations of topologically nontrivial systems such as, for example, spin-polarized transport and quantum spin Hall effect, would also be highly desirable for many applications in the modern photonics. In particular, topologically protected electromagnetic states could be used for transporting photons without any losses or scattering in photonic crystals.

At the same time, optical properties of topological insulators can exhibit rather peculiar features as well. They might lead to the existence of an additional interaction term associated with the axion electrodynamics. Usually, it is quite weak, but by proper optimisation it can be enhanced and lead to some observable effects. It has a great potential for enhancing the axion-photon coupling, which is important for Dark Matter studies.

Prof. Dr. Andrey Miroshnichenko
Prof. Alexander B. Khanikaev
Guest Editors

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Published Papers (1 paper)

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Research

15 pages, 1283 KiB  
Article
Extended SSH Model: Non-Local Couplings and Non-Monotonous Edge States
by Chao Li and Andrey E. Miroshnichenko
Physics 2019, 1(1), 2-16; https://doi.org/10.3390/physics1010002 - 19 Nov 2018
Cited by 25 | Viewed by 8067
Abstract
We construct a generalized system by introducing an additional long-range hopping to the well-known Su-Schrieffer-Heeger (SSH) model. This system exhibits richer topological properties including non-trivial topological phases and associated localized edge states. We study the zero-energy edge states in detail and derive the [...] Read more.
We construct a generalized system by introducing an additional long-range hopping to the well-known Su-Schrieffer-Heeger (SSH) model. This system exhibits richer topological properties including non-trivial topological phases and associated localized edge states. We study the zero-energy edge states in detail and derive the edge-state wave functions using two different methods. Furthermore, we propose a possible setup using octupole moments optically excited on an array of dielectric particles for the realization of the system, and by adjusting the coupling strengths between neighboring particles we can control the hotspots (near-field enhancement) in such structures. Full article
(This article belongs to the Special Issue Topological Photonics and Axion Electrodynamics)
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