Hi there! I am Tomáš Bzdušek, currently a professor leading the group Theory of Topological Matter at the University of Zürich, Switzerland. You can read more about my research in my profile. On these pages, which have until recently served as my personal website, I have collected the research work of myself and of my students. In the “miscellaneous” tab I have collected various further documents, including recorded talks, slides, and code. Note that this page is currently in reconstruction.

News! Following my successful application for a Starting Grant by SNSF, we are seeking one more PhD student, envisioned to start between October 2023 and April 2024. The hiring announcement can be found here. Follow our updates on Twitter and Mastodon.

Latest Posts

Simulating hyperbolic space on a circuit board
Curved spaces are usually associated with high-energy physics and cosmology. However, through the possibility of tabletop experiments emulating curved spaces and the interest in related synthetic matter, they have become relevant in condensed matter physics as well.
Last updated on Aug 12, 2022 1 min read
Simulating hyperbolic space on a circuit board
Theorists discover new paradigm of topological band structures
After the experimental discovery of topological insulators, the notion of what actually constitutes a topological band insulator has been refined in many ways. In their recent work, Aleksandra Nelson, Titus Neupert, Tomáš Bzdušek and Aris Alexandradinata extend the paradigm of topological insulators to areas which were previously thought to contain only trivial insulators.
Last updated on Aug 12, 2022 2 min read
Theorists discover new paradigm of topological band structures
Non-Abelian topology reveals a relation between triple points and nodal links
Electron band structures, which describe the energy-momentum relation for electrons in solids, can exhibit robust crossings called "nodes". Such nodes famously occur in graphene or in Weyl semimetals, and often facilitate special transport phenomena, such as the decrease of resistivity of Weyl semimetals in applied parallel magnetic field.
Last updated on Jun 7, 2021 2 min read
Non-Abelian topology reveals a relation between triple points and nodal links

Latest Publications

Symmetry and topology of hyperbolic Haldane models
Particles hopping on a two-dimensional hyperbolic lattice feature unconventional energy spectra and wave functions that provide a …
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Symmetry and topology of hyperbolic Haldane models
Hyperbolic non-Abelian semimetal
We extend the notion of topologically protected semi-metallic band crossings to hyperbolic lattices in negatively curved space. Due to …
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Hyperbolic non-Abelian semimetal
Non-Abelian hyperbolic band theory from supercells
Tight-binding models on periodic lattices are commonly studied using Bloch band theory, which provides an efficient description of …
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Non-Abelian hyperbolic band theory from supercells
Hyperbolic matter in electrical circuits with tunable complex phases
We introduce and experimentally realize hyperbolic matter as a novel paradigm for topological states, made of particles moving in the …
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Hyperbolic matter in electrical circuits with tunable complex phases
Hyperbolic Topological Band Insulators
Recently, hyperbolic lattices that tile the negatively curved hyperbolic plane emerged as a new paradigm of synthetic matter, and their …
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Hyperbolic Topological Band Insulators
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