  We study constraints from LHC run I on squark and gluino masses in the
presence of squark flavor violation. Inspired by the concept of `flavored
naturalness', we focus on the impact of a non-zero stop-scharm mixing and mass
splitting in the right-handed sector. To this end, we recast four searches of
the ATLAS and CMS collaborations, dedicated either to third generation squarks,
to gluino and squarks of the first two generations, or to charm-squarks. In the
absence of extra structure, the mass of the gluino provides an additional
source of fine tuning and is therefore important to consider within models of
flavored naturalness that allow for relatively light squark states. When
combining the searches, the resulting constraints in the plane of the lightest
squark and gluino masses are rather stable with respect to the presence of
flavor-violation, and do not allow for gluino masses of less than 1.2 TeV and
squarks lighter than about 550 GeV. While these constraints are stringent,
interesting models with sizable stop-scharm mixing and a relatively light
squark state are still viable and could be observed in the near future.
