  We explore the impact of strong classical color fields, which occur in the
earliest stages of heavy-ion collisions and are known as the Glasma, on the
classical transport of hard probes, namely heavy quarks and jets. To achieve
this, we simulate SU(3) color fields using classical real-time lattice gauge
theory and couple them to an ensemble of test particles whose dynamics are
described by Wong's equations. We provide an overview of how classical color
algebras are constructed and introduce a method to generate random classical
SU(3) color charges. We extensively test our numerical particle solver in the
limits of infinitely massive heavy quarks and ultra-relativistic light-like
jets and obtain excellent quantitative agreement with previous studies. Going
towards realistic masses and initial moment, we extract longitudinal and
transverse momentum broadening for heavy quarks and jets. The resulting
accumulated momenta and the anisotropy of these dynamical hard probes exhibit
deviations from limiting scenarios, showing that the full dynamics have a
significant effect.
