Multiplicative topological semimetals

Fuente: arXiv
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Hauptverfasser: Pal, Adipta, Winter, Joe H., Cook, Ashley M.
Format: Preprint
Veröffentlicht: 2023
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author Pal, Adipta
Winter, Joe H.
Cook, Ashley M.
author_facet Pal, Adipta
Winter, Joe H.
Cook, Ashley M.
contents Exhaustive study of topological semimetal phases of matter in equilibriated electonic systems and myriad extensions has built upon the foundations laid by earlier introduction and study of the Weyl semimetal, with broad applications in topologically-protected quantum computing, spintronics, and optical devices. We extend recent introduction of multiplicative topological phases to find previously-overlooked topological semimetal phases of electronic systems in equilibrium, with minimal symmetry-protection. We show these multiplicative topological semimetal phases exhibit rich and distinctive bulk-boundary correspondence and response signatures that greatly expand understanding of consequences of topology in condensed matter settings, such as the limits on Fermi arc connectivity and structure, and transport signatures such as the chiral anomaly. Our work therefore lays the foundation for extensive future study of multiplicative topological semimetal phases.
format Preprint
id arxiv_https___arxiv_org_abs_2301_02404
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Multiplicative topological semimetals
Pal, Adipta
Winter, Joe H.
Cook, Ashley M.
Mesoscale and Nanoscale Physics
Strongly Correlated Electrons
Superconductivity
Exhaustive study of topological semimetal phases of matter in equilibriated electonic systems and myriad extensions has built upon the foundations laid by earlier introduction and study of the Weyl semimetal, with broad applications in topologically-protected quantum computing, spintronics, and optical devices. We extend recent introduction of multiplicative topological phases to find previously-overlooked topological semimetal phases of electronic systems in equilibrium, with minimal symmetry-protection. We show these multiplicative topological semimetal phases exhibit rich and distinctive bulk-boundary correspondence and response signatures that greatly expand understanding of consequences of topology in condensed matter settings, such as the limits on Fermi arc connectivity and structure, and transport signatures such as the chiral anomaly. Our work therefore lays the foundation for extensive future study of multiplicative topological semimetal phases.
title Multiplicative topological semimetals
topic Mesoscale and Nanoscale Physics
Strongly Correlated Electrons
Superconductivity
url https://arxiv.org/abs/2301.02404