Short-time behavior of a system ruled by non-Hermitian time-dependent Hamiltonians
arXiv:2508.13194 · doi:10.3390/sym17081336
Abstract
The short-time behavior of the survival probability of a system governed by a time-dependent non-Hermitian Hamiltonian is derived using to the second order perturbative approach. The resulting expression allows for the analysis of some situations which could be of interest in the field of quantum technology. For example, it becomes possible to predict a quantum Zeno effect even in the presence of decay processes.
10 pages, 5 figures
References in corpus (14)
- Gain and loss induced topological insulating phase in a non Hermitian electrical circuit
- Non-Hermitian chiral phononics through optomechanically-induced squeezing
- Exceptional odd-frequency pairing in non-Hermitian superconducting systems
- Entanglement Entropy of Non-Hermitian Eigenstates and the Ginibre Ensemble
- Photon blockade in non-Hermitian optomechanical systems with nonreciprocal couplings
- Exactly solvable time-dependent non-Hermitian quantum systems from point transformations
- Non-hermitian topology in multiterminal superconducting junctions
- Quantum Dynamics with Stochastic Non-Hermitian Hamiltonians
- Predicting correlations in superradiant emission from a cascaded quantum system
- Non-Hermitian time-dependent perturbation theory: asymmetric transitions and transitionless interactions
- Three-state Landau-Zener model in the presence of dissipation
- Work statistics in non-Hermitian evolutions with Hermitian endpoints
- Correlations in non-Hermitian systems and Diagram techniques for the steady state
- Constraining work fluctuations of non-Hermitian dynamics across the exceptional point of a superconducting qubit