  We study charged lepton flavor-violating (LFV) transitions in the color octet
model that generates neutrino mass and lepton mixing at one loop. By taking
into account neutrino oscillation data and assuming octet particles of TeV
scale mass, we examine the feasibility to detect these transitions in current
and future experiments. We find that for general values of parameters the
branching ratios for LFV decays of the Higgs and $Z$ bosons are far below
current and even future experimental bounds. For LFV transitions of the muon,
the present bounds can be satisfied generally, while future sensitivities could
distinguish between the singlet and triplet color-octet fermions. The triplet
case could be ruled out by future $\mu-e$ conversion in nuclei, and for the
singlet case the conversion and the decays $\mu\to 3e,~e\gamma$ play
complementary roles in excluding relatively low mass regions of the octet
particles.
