  We study the electronic transport properties of a superconductor (S) with a
mixed s+p-wave pairing attached to a ferromagnetic metal (F) and a normal
electrode (N) in an SFN configuration. Using the quasiclassical Green's
function method, we compute the differential conductance $\sigma$ of the
junction and demonstrate its dependence on the direction of the exchange field
relative to the direction of the d-vector of the pair potential. If the p-wave
triplet dominates the pairing, the zero bias conductance depends on the
relative direction between the triplet d-vector and the exchange field. In
contrast, if the s-wave singlet dominates the pairing, the zero bias
conductance is isotropic with respect to the field direction. Furthermore, at
zero temperature, the zero bias conductance height can only take two values as
a function of $r$, the parameter quantifying the relative amount of s- and
p-wave pairing, with an abrupt change at $r=1$ when the superconductor goes
from a singlet to triplet dominated ground state. Moreover, we show that the
relative amount of s- and p-wave pairing, can be estimated from the dependence
of the finite bias conductance on the exchange field direction. Our results
provide a way to characterize parity-mixed superconductors performing
electrical measurements.
