  In this paper, we propose a one-dimensional disordered plasmonic structure
composed of a graphene single layer placed on a random grating composed of
InAs. The propagation of a plasmonic wave through this structure is
investigated numerically. By calculation of normalized localization length for
systems with different disorder strengths, it is determined whether or not the
system is in the localized regime. For some frequencies, depending on the
disorder level, Anderson localization occurs for plasmonic waves propagating
through the graphene layer. Furthermore, the effect of optical loss on the
localization length is studied. By calculating the localization length at
different temperatures, it is observed that Anderson localization of graphene
plasmons is temperature dependent and can be controlled by changing the
temperature. In the transmission spectrum for each random realization, there
are some resonance peaks which are blue-shifted with increasing the
temperature. Finally, the effects of Fermi energy level of the graphene layer
and width of air gaps on the individual transmission resonances are examined.
