  We present a comparison of Coulomb gauge wave functions from $6/{g^2}=6.0$
quenched simulations with two simulations which include the effects of
dynamical fermions: simulations with two flavors of dynamical staggered quarks
and valence Wilson quarks at $6/{g^2}=5.6$ and simulations with two flavors of
dynamical Wilson quarks and Wilson valence quarks, at $6/{g^2}=5.3$. The
spectroscopy of these systems is essentially identical. Parameterizations of
the wave functions are presented which can be used as interpolating fields for
spectroscopy calculations. The sizes of particles are calculated using these
parameterized wave functions. The resulting sizes are small, approximately half
the sizes of the physical states. The charge radius of the neutron, which
provides an indication of the asymmetries between the wave functions of up and
down quarks, is calculated. Although the size of the nucleon in these
simulations is small, the ratio of the charge radius of the neutron to that of
the proton is consistent with the physical value. We find no significant
differences between the quenched and dynamical simulations.
