We notice that, when a quantum system involves exceptional points, i.e. the special values of parameters where the Hamiltonian loses its self-adjointness and acquires the Jordan block structure, the corresponding classical system also exhibits a singular behaviour associated with restructuring of classical trajectories. The system with the crypto-Hermitian Hamiltonian H = (p<sup>2</sup>+z<sup>2</sup>)/2 -igz<sup>5</sup> and hyper-ellictic classical dynamics is studied in details. Analogies with supersymmetric Yang-Mills dynamics are elucidated
doi:10.3906/fiz-0812-2 Behavior of transition amplitude and evolution of the energy of quantum kicke...
One of the unique features of non-Hermitian (NH) systems is the appearance of NH degeneracies known ...
In the framework of non-Hermitian quantum physics, the relation between exceptional points,dynamical...
We notice that, when a quantum system involves exceptional points, i.e. the special values of parame...
The eigenvalues of a non-Hermitian Hamilton operator are complex and provide not only the energies b...
The eigenvalues of a non-Hermitian Hamilton operator are complex and provide not only the energies b...
In this work, taking the most general non-Hermitian Hamiltonian without parity-time $(\mathcal{PT})$...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Non-Hermitian quantum physics is used successfully for the description of different puzzling experim...
We in this paper study the relation of hermiticity and energy spectrum for Hamiltonians consisting o...
The Exceptional Points (EPs) of non-Hermitian Hamiltonians (NHHs) are spectral degeneracies associat...
Using the formalism for the description of open quantum systems by means of a non-Hermitian Hamilton...
doi:10.3906/fiz-0812-2 Behavior of transition amplitude and evolution of the energy of quantum kicke...
One of the unique features of non-Hermitian (NH) systems is the appearance of NH degeneracies known ...
In the framework of non-Hermitian quantum physics, the relation between exceptional points,dynamical...
We notice that, when a quantum system involves exceptional points, i.e. the special values of parame...
The eigenvalues of a non-Hermitian Hamilton operator are complex and provide not only the energies b...
The eigenvalues of a non-Hermitian Hamilton operator are complex and provide not only the energies b...
In this work, taking the most general non-Hermitian Hamiltonian without parity-time $(\mathcal{PT})$...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Eigenvectors of decaying quantum systems are studied at exceptional points of the Hamiltonian. Speci...
Non-Hermitian quantum physics is used successfully for the description of different puzzling experim...
We in this paper study the relation of hermiticity and energy spectrum for Hamiltonians consisting o...
The Exceptional Points (EPs) of non-Hermitian Hamiltonians (NHHs) are spectral degeneracies associat...
Using the formalism for the description of open quantum systems by means of a non-Hermitian Hamilton...
doi:10.3906/fiz-0812-2 Behavior of transition amplitude and evolution of the energy of quantum kicke...
One of the unique features of non-Hermitian (NH) systems is the appearance of NH degeneracies known ...
In the framework of non-Hermitian quantum physics, the relation between exceptional points,dynamical...