We present a review of recent research on quantum entanglement, with special emphasis
on entanglement between single atoms, processing of an encoded entanglement and its …

We report ground-state quantum beats in spontaneous emission from a continuously driven
atomic ensemble. Beats are visible only in an intensity autocorrelation and evidence …

Quantum Trajectories and Autocorrelation Function in Semiconductor Microcavity 1 Introduction
Page 1 Applied Mathematics & Information Sciences 3(2) (2009), 185–196 – An International …

We present an alternative route to track the motion of a single atom traversing a high-finesse
optical cavity by means of the coherence statistics of photon antibunching. Here the single …

It is shown how one can implement quantum feedback and probabilistic error correction in
an open quantum system consisting of a single atom, with ground-and excited-state Zeeman …

In the observation of multiple thresholds in the cavity-quantum electrodynamics microlaser
there was deviation from the result predicted by uniform atom-cavity coupling theory, notably …

A single atom strongly coupled to a high-finesse cavity constitutes a fundamental quantum
system of matter-light interaction. Coherent couplings largely exceeding the decay rates are …

We perform quantum trajectory simulations of the micromaser/laser with Poissonian pump,
lifting all restriction on the number of simultaneously interacting atoms. For mean numbers of …

Cavity quantum electrodynamics (QED) allows the study of light-matter interactions at the
most basic level, through precise identification of the coherent and incoherent (dissipative) …

We revisit the “trapping states” of the micromaser from a quantum trajectory point of view,
treating many simultaneously interacting atoms and a random atomic beam. Previous …