  In molecular electronic conduction, exotic lattice morphologies often give
rise to exotic behaviors. Among 2D systems, graphene is a notable example.
Recently, a stable amorphous version of graphene called Monolayer Amorphous
Carbon (MAC) was synthesized. MAC poses a new set of questions regarding the
effects of disorder on conduction. In this Letter, we perform ensemble-level
computational analysis of the coherent electronic transmission through MAC
nano-fragments in search of defining characteristics. Our analysis, relying on
a semi-empirical Hamiltonian (Pariser-Parr-Pople) and Landauer theory, showed
that states near the Fermi energy ($E_F$) in MAC inherit partial
characteristics of analogous surface states in graphene nano-fragments. Away
from $E_F$, current is carried by a set of delocalized states which transition
into a subset of insulating interior states at the band edges. Finally, we also
found that quantum interference between the frontier orbitals is a common
feature among MAC nano-fragments.
