  The weak measurement (WM) and quantum measurement reversal (QMR) are crucial
in protecting the collapse of quantum states. The idea of WM and QMR has
recently been used to protect and enhance quantum correlations and universal
quantum teleportation (UQT) protocols. Here, we study the quantum correlations,
maximal fidelity, and fidelity deviation of the two-qubit negative quantum
states developed using discrete Wigner functions with(without) WM and QMR. To
take into account the effect of a noisy environment, we evolve the states via
non-Markovian amplitude damping and random telegraph noise quantum channels. To
benchmark the performance of negative quantum states, we calculate their
success probability. We compare our results with the two-qubit maximally
entangled Bell state. Interestingly, we observe that some negative quantum
states perform better with WM and QMR than the Bell state for different cases
under evolution via noisy quantum channels.
