In some non-Hermitian systems, the eigenstates in the bulk are localized at the boundaries of the systems. This is called the non-Hermitian skin effect, and it has been studied mostly in discrete systems. In the present work, we study the non-Hermitian skin effect in a continuous periodic model. In a one-dimensional system, we show that the localization lengths are equal for all the eigenstates. Moreover, the localization length and the eigenspectra in a large system are independent of the types of open boundary conditions. These properties are also found in a non-Hermitian photonic crystal. Such remarkable behaviors in a continuous periodic model can be explained in terms of the non-Bloch band theory. By constructing the generalized Brillo...
The Hatano-Nelson and the non-Hermitian Su-Schrieffer-Heeger model are paradigmatic examples of non-...
Non-Hermitian systems exhibit nontrivial band topology and a strong sensitivity of the energy spectr...
A unique feature of non-Hermitian (NH) systems is the NH skin effect, i.e., the edge localization of...
The non-Bloch band theory can describe energy bands in a one-dimensional (1D) non-Hermitian system. ...
The energy bands of non-Hermitian systems exhibit nontrivial topological features that arise from th...
Skin effect that all eigenmodes within a frequency range become edge states is dictated by the topol...
Non-Hermitian lattices under semi-infinite boundary conditions sustain an extensive number of expone...
Understanding the extreme sensitivity of the eigenvalues of non-Hermitian Hamiltonians to the bounda...
The non-Hermitian skin effect (NHSE) refers to that an extensive number of eigenstates of a non-Herm...
We study a non-Hermitian variant of the (2+1)-dimensional Dirac wave equation, which hosts a real en...
Although the non-Bloch band theory is a milestone in elaborating bulk energy bands of non-Hermitian ...
In this work, we explore interesting consequences arising from the coupling between a clean non-Herm...
Topological modes (TMs) are usually localized at defects or boundaries of a much larger topological ...
Non-Hermitian lattices with non-reciprocal couplings under open boundary conditions are known to pos...
The non-Hermitian skin effect is a phenomenon in which an extensive number of states accumulates at ...
The Hatano-Nelson and the non-Hermitian Su-Schrieffer-Heeger model are paradigmatic examples of non-...
Non-Hermitian systems exhibit nontrivial band topology and a strong sensitivity of the energy spectr...
A unique feature of non-Hermitian (NH) systems is the NH skin effect, i.e., the edge localization of...
The non-Bloch band theory can describe energy bands in a one-dimensional (1D) non-Hermitian system. ...
The energy bands of non-Hermitian systems exhibit nontrivial topological features that arise from th...
Skin effect that all eigenmodes within a frequency range become edge states is dictated by the topol...
Non-Hermitian lattices under semi-infinite boundary conditions sustain an extensive number of expone...
Understanding the extreme sensitivity of the eigenvalues of non-Hermitian Hamiltonians to the bounda...
The non-Hermitian skin effect (NHSE) refers to that an extensive number of eigenstates of a non-Herm...
We study a non-Hermitian variant of the (2+1)-dimensional Dirac wave equation, which hosts a real en...
Although the non-Bloch band theory is a milestone in elaborating bulk energy bands of non-Hermitian ...
In this work, we explore interesting consequences arising from the coupling between a clean non-Herm...
Topological modes (TMs) are usually localized at defects or boundaries of a much larger topological ...
Non-Hermitian lattices with non-reciprocal couplings under open boundary conditions are known to pos...
The non-Hermitian skin effect is a phenomenon in which an extensive number of states accumulates at ...
The Hatano-Nelson and the non-Hermitian Su-Schrieffer-Heeger model are paradigmatic examples of non-...
Non-Hermitian systems exhibit nontrivial band topology and a strong sensitivity of the energy spectr...
A unique feature of non-Hermitian (NH) systems is the NH skin effect, i.e., the edge localization of...