  The quantum correlations of a system of two quantum dots with F\"oster
interaction ({\Gamma}) in a microcavity with strongly coupled dissipation and a
single mode of the electromagnetic field and driven by a laser pulse were
studied theoretically, using the formalism of the master equation in Lindbland
form. The energy eigenvalues of the system were studied as a function of
detuning for the first and second excitation varieties. Concurrence (CC),
formation entanglement (EoF),mutual information (I) and quantum discord (Q) are
studied as a function of time considering different values of F\"oster
coupling, varying the pump times of the simulated laser pulse and pulse
intensity. We found a discrepancy between EoF and CC as entanglement
quantifiers, noting that concurrence reaches much higher values than EoF; so
concurrence can indicate results that are well above the EoF. The presence of
the F\"oster interaction favors that the quantum discord is the dominant
correlation in the system, which indicates that the system maintains quantum
correlations even when the entanglement of the system has disappeared, but that
it is affected by the increase in the laser pump time
