Dynamics of physical properties of a single-mode quantized field nonlinearly and non-resonantly interacting with two V-type three-level atoms passing consecutively through a cavity

TL;DR

This paper provides an analytical solution for the dynamics of a single-mode quantized field interacting non-resonantly and nonlinearly with two V-type three-level atoms passing through a cavity, analyzing various quantum properties.

Contribution

It introduces an exact analytical solution for the non-resonant, intensity-dependent atom-field interaction with two V-type atoms, enabling detailed study of quantum properties.

Findings

Detuning and nonlinearity significantly affect quantum properties.

The system exhibits notable atom-field entanglement and field squeezing.

Nonclassical properties are highly sensitive to system parameters.

Abstract

In this paper we address the analytical solution of the non-resonant interaction between two identical V-type three-level atoms passing consecutively through a single-mode cavity field in the presence of intensity-dependent coupling. By considering an identical initial condition for both atoms and an initial coherent field, we find the analytical solution of the state vector of the entire atom-field system. Accordingly, we could carefully investigate the influence of various parameters in the circumstances of the interacting system on different physical quantities such as the atomic population inversion, atom-field entanglement, field squeezing, sub-Poissonian statistics and the Wigner quasi-probability distribution function. In detail, we discuss numerically the influences of the detuning parameters and a particular nonlinearity function on the mentioned quantities and demonstrate that they have substantial effects on the temporal behavior of the above-mentioned nonclassical properties.