  We present a proof-of-principle of how electronic transport measurements
permits the observation of the Autler-Townes doublet, an optical property of
nanodevices. The quantum physical system consists of one optically pumped
quantum dot, a second auxiliary quantum dot, and a superconductor lead which
provides an effective coupling between the dots via crossed Andreev reflection.
Electrodes, working as source and drain, acts as nonequilibrium electronic
reservoirs. Our calculations of the photocurrent at both, transient and
stationary regimes, obtained using a density matrix formalism for open quantum
systems, shows signatures of the formation of the Autler-Townes doublet, caused
by the interplay between the optical pumping and the crossed Andreev
reflection.
