  We describe some detailed numerical simulations of Disoriented Chiral
Condensates (DCCs), using the chiral lagrangian as a controlled long-wavelength
description. We focus on the possibility of multiple, independently coherent
domains, and investigate the degree to which the DCC signal is attenuated. As
an intermediate step in our analysis we compute the expected number of detector
events in each isospin and momentum channel for a given asymptotic classical
field configuration. We find that for sufficiently large initial field
strengths, the non-linear interactions between domains become important and can
lead to a randomization of isospin orientations. Nevertheless, we argue that
viable signals exist for DCC detection, even in the case of multiple domains
and strong domain-domain interactions. We briefly discuss some long-lived
`pseudo-bound state' configurations which arise at large field strengths and
might be observable in HBT correlations.
