  The emergence of gapless surface states, known as Fermi arcs (FAs), is one of
the unique properties of the novel topological Weyl semimetal (WSM). However,
extracting the signatures of FAs from the bulk states has always been a
challenge as both of them are gapless in nature and connected to each other. We
capture the signatures of FAs via transport in an inversion symmetry
(IS)-broken WSM. We study the band structure and the properties of FAs like
shape, spin polarization considering slab and nanowire (NW) geometry, and then
compute the two-terminal conductance in WSM NW in terms of the scattering
coefficients within the Landauer formalism. We find the FA-mediated conductance
to be quantized in units of $2e^2/h$. We extend our study to the transport in
WSM/Weyl superconductor (WSC) NW hybrid junction using the
Blonder-Tinkham-Klapwijk (BTK) formalism. We show that due to the intricate
spin textures, the signatures of the FAs can be captured via Andreev reflection
process. We also show that our results of conductance are robust against
delta-correlated quenched disorder and thus enhancing the experimental
feasibility.
