  Transverse Anderson localization of light allows localized
optical-beam-transport through a transversely-disordered and
longitudinally-invariant medium. Its successful implementation in disordered
optical fibers recently resulted in the propagation of localized beams of radii
comparable with that of conventional optical fibers. We present what is, to the
best of our knowledge, the first demonstration of optical image transport using
transverse Anderson localization of light. The image transport quality obtained
in the polymer disordered optical fiber is comparable with or better than some
of the best commercially available multicore image fibers with less pixelation
and higher contrast. It is argued that considerable improvement in image
transport quality can be obtained in a disordered fiber made from a glass
matrix with near wavelength-size randomly distributed air-holes with an
air-hole fill-fraction of $50\%$. Our results open the way to device-level
implementation of the transverse Anderson localization of light with potential
applications in biological and medical imaging.
