  From the moment atomic precision control of the growth process of graphene
was achieved, more elaborated carbon allotropes were proposed opening new
channels for flat optoelectronics at the nanoscale. A special type of this
material presenting a V-shape (or "kinked" pattern) was recently synthesized
and named Chevron-graphene nanoribbons (C-GNRs). To realize the reach of
C--GNRs in developing new applications, the formation, and transport of charge
carriers in their lattices should be primarily understood. Here, we investigate
the static and dynamical properties of quasiparticles in C-GNRs. We study the
effects of electron-phonon coupling and doping on the system. We also determine
the kind of charge carriers present in C--GNR. It is observed that a phase
transition occurs between a delocalized regime of conduction and regimes
mediated by charge carriers. Such a phase transition is highly dependent on the
doping concentration. Remarkably, crucial differences from the transport in
standard graphene nanoribbons are identified. These factors are noted to have a
profound impact on the mobility on the system which, in turn, should decisively
impact the performance of electronic devices based on C-GNRs.
