  We investigate the subgap spectrum and transport properties of the quantum
dot placed on interface between metallic and superconducting leads and
additionally side-coupled to the edge of topological superconducting (TS)
chain, hosting the Majorana quasiparticle. Due to chiral nature of the Majorana
states only one spin component, say $\uparrow$, of the quantum dot electrons is
directly hybridized with the TS wire. We study the spin-selective
interferometric patterns driven by the Majorana quasiparticle. The proximity
induced on-dot pairing effectively transmits the interference onto both spin
components, but each of them is characterized by completely different (even
opposite) signatures. To explain their origin we confront our results with the
toy model, where TS chain is replaced by the usual quantum and the tunneling of
$\downarrow$ electrons is prohibited. We also address unique interplay of the
Majorana and Kondo features, both appearing at zero energy.
