Abstract:
In this research, we have studied the squeezing and statistical properties of the cavity
light beams produced by a dynamics of non-degenerate three-level laser in a closed
cavity and coupled with a two-mode vacuum reservoir for single atom via a singleport mirror. We have carried out our analysis by putting the noise operators associated with the vacuum reservoir in normal order. Applying the solutions of the equations of evolution for the expectation values of the atomic operators and the quantum Langevin equations for the cavity mode operators, we have calculated the global
and local mean and variance of the photon number as well as the quadrature squeezing of the cavity light single-mode and two-modes.Furthermore we determined the
photon entanglement as well as the atom-cavity entanglement. It is found to be the
maximum quadrature squeezing for the values of stimulated emission decay constant(i.e γc = 0.4 and 0.2 ). The maximum quadrature squeezing is found to be 43.43%
below the vacuum-state level. Moreover we have found that both the mean photon
number for a two-mode laser light beam is the sum of the mean photon numbers
and the single-mode light beams. On the other hand, the quadrature squeezing is
due to the correlation of the two light beams. In view of this correlations the two
mode cavity light is entangled. The degree of entanglement increases with the increase in stimulated emission decay constant.
