  The widespread notion that jets quenched in a Quark-Gluon-Plasma (QGP) are
similar in their parton flavor composition to jets in vacuum is critically
examined. We demonstrate that while the soft to semi-hard [low to intermediate
transverse momentum ($p_T$)] sector of vacuum jets are predominantly bosonic
i.e., composed of gluons, \emph{sufficiently} quenched jets can have an
intermediate momentum sector that is predominantly fermionic, dominated by
quarks and antiquarks. We demonstrate, using leading order perturbative QCD
processes, that the rate of flavor conversion from a gluon traversing the QGP
as part of a jet, to a quark or antiquark, versus the reverse process, grows
steadily with falling $p_T$. Simple diagrammatic estimates are followed by a
variety of realistic simulations in static media. The relation of this increase
in flavor to the observed baryon enhancement at intermediate $p_T$ is studied
in a fully realistic simulation.
