The topological phases of non-interacting fermions have been classified by their
symmetries, culminating in a modern electronic band theory where wavefunction topology …

There is extensive current interest in electronic topology in correlated settings. In strongly
correlated systems, contours of Green's function zeros may develop in frequency-momentum …

Topological quantum chemistry (TQC) is a successful framework for identifying
(noninteracting) topological materials. Based on the symmetry eigenvalues of Bloch …

Quantum dots are one of the paradigmatic solid-state systems for quantum engineering,
providing an outstanding tunability to explore fundamental quantum phenomena. Here we …

Lattice symmetries are central to the characterization of electronic topology. Recently, it was
shown that Green's function eigenvectors form a representation of the space group. This …

The intersection of electronic topology and strong correlations offers a rich platform to
discover exotic quantum phases of matter and unusual materials. An overarching challenge …

The obstructed atomic insulators are insulators with both atomic limits and boundary states.
In this study, we examine the properties of obstructed atomic insulators under correlation …

The recently introduced topological quantum chemistry (TQC) framework has provided a
description of universal topological properties of all possible band insulators in all space …

Symmetric mass generation (SMG) insulators are interaction-driven, featureless Mott
insulating states in quantum many-body fermionic systems. Recent advancements suggest …

Topology is routinely used to understand the physics of electronic insulators. However, for
strongly interacting electronic matter, such as Mott insulators, a comprehensive topological …