  Simple Composite Higgs models predict new vector-like fermions not too far
from the electroweak scale, yet LHC limits are now sensitive to the TeV scale.
Motivated by this tension, we explore the holographic dual of the minimal
model, MCHM5, to understand how far naive 4D predictions are from their 5D
duals. Interestingly, we find that the usual hierarchy among the vector-like
quarks is not generic, hence ameliorating the tuning issue. We find that
lowering the UV cutoff in the 5D picture allows for heavier top partners, while
keeping the mass of the Higgs boson at its observed value. In the 4D dual this
corresponds to increasing the number of colours. This is essentially a Little
Randall-Sundrum Model, which are known to reduce some flavour and electroweak
constraints. Furthermore, in anticipation of the ongoing efforts at the LHC to
put bounds on the top Yukawa, we demonstrate that deviations from the SM can be
suppressed or enhanced with respect to what is expected from mere symmetry
arguments in 4D. We conclude that the 5D holographic realisation of the MCHM5
with a small UV cutoff is not in tension with the current experimental data.
