  We study the dynamics of color fields as generated by simple configurations
of relativistic particles with Abelian and non-Abelian (SU(2)) charges in the
classical limit. We find that chromodynamic (non-Abelian) systems generally
show Coulomb-like features by analogy with electrodynamics. A peculiar feature
in the non-Abelian case is the additional strength of the chromoelectric and
chromomagnetic fields caused by the contribution of changing the color charge.
This change of color SU(2) charges results in a rotation of the color vector
which is getting very fast at close partonic distances. The presence of this
non-Abelian additional term in the chromoelectric and chromomagnetic fields
creates a 'color charge glow', which is manifested as a distinct color wave
disturbance arising due to the finite distance at which the color interaction
becomes active. This situation may be relevant to the hadronization phase in
ultrarelativistic heavy-ion collisions, where the partonic state is governed by
strong local color fluctuations.

Nuclear Theory;High Energy Physics - Phenomenology;Nuclear Experiment