In recent works we have used quantum tools in the analysis of the time evolution of several macroscopic systems. The main ingredient in our approach is the self-adjoint Hamiltonian H of the system S. This Hamiltonian quite often, and in particular for systems with a finite number of degrees of freedom, gives rise to reversible and oscillatory dynamics. Sometimes this is not what physical reasons suggest. We discuss here how to use non self-adjoint Hamiltonians to overcome this difficulty: the time evolution we obtain out of them show a preferable arrow of time, and it is not reversible. Several applications are constructed, in particular in connection to information dynamics
We discuss the time evolution of physical finite dimensional systems which are modelled by non-hermi...
[EN] This paper is an attempt to translate the quantum formulation from physics to general systems ...
The study of many-body quantum dynamics in strongly-correlated systems is extremely challenging. To ...
In recent works we have used quantum tools in the analysis of the time evolution of several macrosc...
In this doctoral thesis, we develop and investigate new mathematical tools that are intended to allo...
We propose, formulate and analyze novel quantum systems and behavioral phases in which the momentary...
We discuss systematically several possible inequivalent ways to describe the dynamics and the transi...
The Schroedinger equation is used to describe a quantum system evolving in time by a non-Hermitian H...
In this work we present a dynamical approach to quantum logics. By changing the standard formalism o...
My research has three main foci, one which is of interest to the fields of quantum information and q...
In some recent literature the role of non self-adjoint Hamiltonians, H not equal H-dagger, is often ...
We observe that the Schrodinger equation may be written as two real coupled Hamilton-Jacobi (HJ)-lik...
We introduce a new class of quantum models with time-dependent Hamiltonians of a special scaling for...
Several theoretical methods for the computation of quantum dynamical quantities are formulated, impl...
We introduce a dynamical evolution operator for dealing with unstable physical process, such as scat...
We discuss the time evolution of physical finite dimensional systems which are modelled by non-hermi...
[EN] This paper is an attempt to translate the quantum formulation from physics to general systems ...
The study of many-body quantum dynamics in strongly-correlated systems is extremely challenging. To ...
In recent works we have used quantum tools in the analysis of the time evolution of several macrosc...
In this doctoral thesis, we develop and investigate new mathematical tools that are intended to allo...
We propose, formulate and analyze novel quantum systems and behavioral phases in which the momentary...
We discuss systematically several possible inequivalent ways to describe the dynamics and the transi...
The Schroedinger equation is used to describe a quantum system evolving in time by a non-Hermitian H...
In this work we present a dynamical approach to quantum logics. By changing the standard formalism o...
My research has three main foci, one which is of interest to the fields of quantum information and q...
In some recent literature the role of non self-adjoint Hamiltonians, H not equal H-dagger, is often ...
We observe that the Schrodinger equation may be written as two real coupled Hamilton-Jacobi (HJ)-lik...
We introduce a new class of quantum models with time-dependent Hamiltonians of a special scaling for...
Several theoretical methods for the computation of quantum dynamical quantities are formulated, impl...
We introduce a dynamical evolution operator for dealing with unstable physical process, such as scat...
We discuss the time evolution of physical finite dimensional systems which are modelled by non-hermi...
[EN] This paper is an attempt to translate the quantum formulation from physics to general systems ...
The study of many-body quantum dynamics in strongly-correlated systems is extremely challenging. To ...