  We show that there are qualitative differences between the temperature
dependence of the spin and charge correlations in the normal state of the 2D
attractive Hubbard model using quantum Monte Carlo simulations. The
one-particle density of states shows a pseudogap above $\tc$ with a depleted
$N(0)$ with decreasing $T$. The susceptibility $\cs$ and the low frequency spin
spectral weight track $N(0)$, which explains the spin-gap scaling: $1/T_1T \sim
\cs(T)$. However the charge channel is dominated by collective behavior and the
compressibility $dn/d\mu$ is $T$-independent. This anomalous ``spin-charge
separation'' is shown to exist even at intermediate $|U|$ where the momentum
distribution $n(\bk)$ gives evidence for degenerate Fermi system.
