  We study charge and heat transport in normal-metal/superconductor (NS) hybrid
junction, based on a tilted anisotropic Dirac material. Using the extended
Blonder-Tinkham-Klapwijk formalism, the conductance spectra of NS borophane, a
two-dimensional Dirac semimetal with two tilted anisotropic Dirac cones in its
dispersion, is investigated. Completely different from the usual
normal-metal-superconductor junctions, in spite of the large mismatch in Fermi
wavevectores of the normal-metal and superconductor sides of the borophane NS
junction, the electron-hole conversion happens with unit probability at normal
incidences. Furthermore, we demonstrate that in the heavily doped
superconducting regime for heavily doped normal borophane, the electron-hole
conversion happens with unit probability, approximately at any incident angle.
The dependence of the Andreev with Fermi energy and bias voltage, enable us,
selecting the retroconfiguration or specular configuration in types of Andreev
reflection processes. We numerically establish an anomalous behavior of thermal
conductance in borophane. The tilting of the Dirac cones gives rise to an
anomalous behaviour in the thermal conductance of the NS hybrid junction of
borophane, such that the thermal conductance decreases by increasing the
temperature. Our findings will have potential applications for transport and
energy control in superconducting quantum interference devices and hybridized
mesoscopic systems.
