  We are interested in the similarities and differences between the
quantum-classical (Q-C) and the noncommutative-commutative (NC-Com)
correspondences. As one useful platform to address this issue we derive the
superstar Wigner-Moyal equation for noncommutative quantum mechanics (NCQM). A
superstar $\bigstar$-product combines the usual phase space $\ast$ star and the
noncommutative $\star$ star-product. Having dealt with subtleties of ordering
present in this problem we show that the classical correspondent to the NC
Hamiltonian has the same form as the original Hamiltonian, but with a
non-commutativity parameter $\theta$-dependent, momentum-dependent shift in the
coordinates. Using it to examine the classical and the commutative limits, we
find that there exist qualitative differences between these two limits.
Specifically, if $\theta \neq 0$ there is no classical limit. Classical limit
exists only if $\theta \to 0$ at least as fast as $\hbar \to 0$, but this limit
does not yield Newtonian mechanics, unless the limit of $\theta/\hbar$ vanishes
as $\theta \to 0$. Another angle to address this issue is the existence of
conserved currents and the Noether's theorem in the continuity equation, and
the Ehrenfest theorem in the NCQM context.
