  We study transport along interfaced edge segments of fractional quantum Hall
states hosting non-Abelian Majorana modes. With an incoherent model approach,
we compute, for edge segments based on Pfaffian, anti-Pfaffian, and
particle-hole-Pfaffian topological orders, thermal conductances, voltage biased
noise, and delta-$T$ noise. We determine how the thermal equilibration of edge
modes impacts these observables and identify the temperature scalings of
transitions between regimes of differently quantized thermal conductances. In
combination with recent experimental data, we use our results to estimate
thermal and charge equilibration lengths in real devices. We also propose an
experimental setup which permits measuring several transport observables for
interfaced fractional quantum Hall edges in a single device. It can, e.g., be
used to rule out edge reconstruction effects. In this context, we further point
out some subtleties in two-terminal thermal conductance measurements and how to
remedy them. Our findings are consistent with recent experimental results
pointing towards a particle-hole-Pfaffian topological order at filling
$\nu=5/2$ in GaAs/AlGaAs, and provide further means to pin-point the edge
structure at this filling and possibly also other exotic fractional quantum
Hall states.
