  We investigate lepton flavor violation (LFV) in the the singlet-triplet
scotogenic model in which neutrinos acquire non-zero masses at the 1-loop
level. In contrast to the most popular variant of this setup, the singlet
scotogenic model, this version includes a triplet fermion as well as a triplet
scalar, leading to a scenario with a richer dark matter phenomenology. Taking
into account results from neutrino oscillation experiments, we explore some
aspects of the LFV phenomenology of the model. In particular, we study the
relative weight of the dipole operators with respect to other contributions to
the LFV amplitudes and determine the most constraining observables. We show
that in large portions of the parameter space, the most promising experimental
perspectives are found for LFV 3-body decays and for coherent $\mu-e$
conversion in nuclei.
