© 2021 American Physical Society.The non-Hermitian skin effect exhibits a collapse of extended bulk modes into an extensive number of localized boundary states in the open boundary condition. Here, we demonstrate a disorder-driven phase transition of a trivial non-Hermitian system to the higher-order non-Hermitian skin effect phase. In contrast to clean systems, the disorder-induced boundary modes form an arc in the complex energy plane, which is a manifestation of the disorder-driven energy-dependent phase transition. At the phase transition, localized corner modes and bulk modes characterized by trivial Hamiltonians coexist within a single band, while they remain separated in the complex energy plane. This behavior is analogous to the mob...
Non-Hermitian systems have provided a rich platform to study unconventional topological phases.These...
Localization appears in a variety of phenomena indisordered systems, including a complete halt of el...
Capital to topological insulators, the bulk-boundary correspondence ties a topological invariant com...
We derive analytical results on energy spectral phase transitions and deformations in the simplest m...
The non-Hermitian skin effect, i.e., eigenstate condensation at the edges in lattices with open boun...
We study the one-dimensional nonreciprocal lattices with real nearest neighboring hopping and find t...
A unique feature of non-Hermitian (NH) systems is the NH skin effect, i.e., the edge localization of...
Non-Hermitian systems can exhibit extraordinary sensitivity to boundary conditions, where the locali...
The energy bands of non-Hermitian systems exhibit nontrivial topological features that arise from th...
A unique feature of non-Hermitian (NH) systems is the NH skin effect, i.e. the edge localization of ...
Non-Hermitian Hamiltonians, which describe a wide range of dissipative systems, and higher-order top...
Abstract It has long been believed that skin modes are equivalent to the nontrivial point gap. Howev...
Non-Hermitian systems have provided a rich platform to study unconventional topological phases. Thes...
The explorations of non-Hermiticity have been devoted to investigate the disorder-induced many-body ...
Non-Hermitian systems have provided a rich platform to study unconventional topological phases.These...
Localization appears in a variety of phenomena indisordered systems, including a complete halt of el...
Capital to topological insulators, the bulk-boundary correspondence ties a topological invariant com...
We derive analytical results on energy spectral phase transitions and deformations in the simplest m...
The non-Hermitian skin effect, i.e., eigenstate condensation at the edges in lattices with open boun...
We study the one-dimensional nonreciprocal lattices with real nearest neighboring hopping and find t...
A unique feature of non-Hermitian (NH) systems is the NH skin effect, i.e., the edge localization of...
Non-Hermitian systems can exhibit extraordinary sensitivity to boundary conditions, where the locali...
The energy bands of non-Hermitian systems exhibit nontrivial topological features that arise from th...
A unique feature of non-Hermitian (NH) systems is the NH skin effect, i.e. the edge localization of ...
Non-Hermitian Hamiltonians, which describe a wide range of dissipative systems, and higher-order top...
Abstract It has long been believed that skin modes are equivalent to the nontrivial point gap. Howev...
Non-Hermitian systems have provided a rich platform to study unconventional topological phases. Thes...
The explorations of non-Hermiticity have been devoted to investigate the disorder-induced many-body ...
Non-Hermitian systems have provided a rich platform to study unconventional topological phases.These...
Localization appears in a variety of phenomena indisordered systems, including a complete halt of el...
Capital to topological insulators, the bulk-boundary correspondence ties a topological invariant com...