  Featuring spin-valley degree of freedom by a magnetic exchange
field-induction to gain transport of charge carriers through a junction based
on superconducting subgap tunneling can provide a new scenario for future
electronics. Transmission of low-energy Dirac-like electron (hole)
quasiparticles through a ferromagnet/superconductor (F/S) interface can be of
noticeable importance due to strong spin-orbit coupling in the valence band of
monolayer $MoS_2$ (ML-MDS). The magnetic exchange field (MEF) of a
ferromagnetic section on top of ML-MDS may affect the electron (hole)
excitations for spin-up and spin-down electrons, differently. Tuning the MEF
enables one to control either electrical properties (such as band gap, SOC and
etc.) or spin-polarized transport. We study the influence of MEF on the
chirality of Andreev resonant state (ARS) appearing at the relating F/S
interface, in which the induced pairing order parameter is chiral $p$-wave
symmetry. The resulting normal conductance is found to be more sensitive to the
magnitude of MEF and doping regime of F region. Unconventional spin-triplet
$p$-wave symmetry features the zero-bias conductance, which strongly depends on
$p$-doping level of F region in the relating NFS junction.
