We study the nonstationary solutions of Fokker-Planck equations associated to either stationary or non stationary quantum states. In particular, we discuss the stationary states of quantum systems with singular velocity fields. We introduce a technique that allows arbitrary evolutions ruled by these equations to account for controlled quantum transitions. As a first signficant application we present a detailed treatment of the transition probabilities and of the controlling time-dependent potentials associated to the transitions between the stationary, the coherent, and the squeezed states of the harmonic oscillator
A nonlinear stochastic Schrödinger equation for pure states describing non-Markovian diffusion of qu...
We consider two alternative procedures which can be used to control the evolution of a generic finit...
The Schroedinger equation is used to describe a quantum system evolving in time by a non-Hermitian H...
We perform a detailed analysis of the non stationary solutions of the evolution (Fokker-Planck) equa...
We perform a detailed analysis of the non stationary solutions of the evolution (Fokker-Planck) equa...
We analyse the non-stationary solutions of the Fokker-Planck equations associated to quantum states ...
We analyze the long-time behavior of transport equations for a class of dissipative quantum systems ...
The spectacular progress in the development of nano systems where quantum states are used and manipu...
In these lectures I discuss the two kinds of evolution of quantum systems: -continuous evolution of ...
We look at time evolution of a physical system from the point of view of dynamical control theory. N...
In this article we reconsider a version of quantum trajectory theory based on the stochastic Schröd...
We start with a short introduction to quantum master equations for semigroups of completely positi...
The control of a two-level open quantum system subject to dissipation due to environment interacti...
We present a nonlinear stochastic Schroedinger equation for pure states describing non-Markovian dif...
Quantum and classical stochastic evolution equations are derived for the statistical state of a syst...
A nonlinear stochastic Schrödinger equation for pure states describing non-Markovian diffusion of qu...
We consider two alternative procedures which can be used to control the evolution of a generic finit...
The Schroedinger equation is used to describe a quantum system evolving in time by a non-Hermitian H...
We perform a detailed analysis of the non stationary solutions of the evolution (Fokker-Planck) equa...
We perform a detailed analysis of the non stationary solutions of the evolution (Fokker-Planck) equa...
We analyse the non-stationary solutions of the Fokker-Planck equations associated to quantum states ...
We analyze the long-time behavior of transport equations for a class of dissipative quantum systems ...
The spectacular progress in the development of nano systems where quantum states are used and manipu...
In these lectures I discuss the two kinds of evolution of quantum systems: -continuous evolution of ...
We look at time evolution of a physical system from the point of view of dynamical control theory. N...
In this article we reconsider a version of quantum trajectory theory based on the stochastic Schröd...
We start with a short introduction to quantum master equations for semigroups of completely positi...
The control of a two-level open quantum system subject to dissipation due to environment interacti...
We present a nonlinear stochastic Schroedinger equation for pure states describing non-Markovian dif...
Quantum and classical stochastic evolution equations are derived for the statistical state of a syst...
A nonlinear stochastic Schrödinger equation for pure states describing non-Markovian diffusion of qu...
We consider two alternative procedures which can be used to control the evolution of a generic finit...
The Schroedinger equation is used to describe a quantum system evolving in time by a non-Hermitian H...