  In this paper, we study the quantum transport at the
Ferromagnet$|$Noncentrosymmetric Superconductor (F$|$NCSC) interface of an
F$|$S$|$F spin valve. In this context, we investigate the tunneling conductance
and its dependence on Rashba Spin-Orbit Coupling (RSOC) considering different
barrier strength and a significant Fermi Wave-vector Mismatch (FWM) at the
ferromagnetic and superconducting regions. The study is carried out for
different magnetization orientations and its strength. We developed Bogoliubov
de Gennes (BdG) Hamiltonian introducing RSOC and exchange interaction for such
an hybrid structure. To study charge conductance we use an extended Blonder -
Tinkham - Klapwijk (BTK) approach along with scattering matrix formalism to
calculate the scattering coefficients. Our results strongly suggest that the
tunneling conductance is strongly dependent on RSOC, magnetization strength,
its orientation and the FWM. The work has also been done for different
singlet-triplet mixing of the gap parameter. We have observed that with the
rise of singlet-triplet mixing ratio the conductance decreases. It is also
observed that a transparent barrier with moderate RSOC and having moderate
magnetization strength with arbitrary orientation is highly suitable for
maximum conductance.
