Quasicrystals exhibit exotic properties inherited from the self-similarity of their long-range
ordered, yet aperiodic, structure. The recent realization of optical quasicrystal lattices paves …

Quasicrystals are long-range ordered, yet not periodic, and thereby present a fascinating
challenge for condensed matter physics, as one cannot resort to the usual toolbox based on …

We investigate the superconducting instabilities of twisted bilayer graphene quasicrystals
(TBGQCs) obtained by stacking two monolayer graphene sheets with 30° relative twisting …

We propose realization of non-Abelian topological superconductivity in two-dimensional
quasicrystals by the same mechanism as in crystalline counterparts. Specifically, we study a …

We study the single-particle properties of two-dimensional quasicrystals where the
underlying geometry of the tight-binding lattice is crystalline but the on-site potential is …

We introduce a general mechanism for obtaining Weyl points in a stack of two-dimensional
(2D) quasicrystals, which can be extended to any stack of aperiodic layers. We do so by …

We study how the electron-electron interactions influence the charge distributions in the
metallic state of quasicrystals. As a simple theoretical model, we introduce an extended …

Clarifying similarities and differences in physical properties between crystalline and
quasicrystalline systems is one of central issues in studying quasicrystals. To contribute to …

It is now possible to use quasicrystals to search for novel topological phenomena enhanced
by their peculiar structure characterized by an irrational number and high-dimensional …

Inspired by recent experimental studies of local magnetic moments interacting with a
metallic quasicrystal, we study the low-temperature fate of spins placed in two-dimensional …