  We construct a prototype BSM model based on the SU(3) color gauge group and a
combination of 4 light (massless) and 8 heavy flavors. In the infrared, the
SU(4) flavor chiral symmetry is spontaneously broken, while in the ultraviolet
this model exhibits the properties of the $N_f=12$ conformal fixed point.
Renormalization group considerations predict the spectrum of such a system to
show hyperscaling, i.e. dimensionless ratios of hadron masses or decay
constants are independent of the heavy mass. Hyperscaling is present for bound
states of light, heavy, or a combination of heavy and light flavors and leads
to a strongly predictive model. Despite chiral symmetry breaking, this system
features a spectrum exhibiting a very non-QCD like behavior. Furthermore, the
gauge coupling becomes an irrelevant parameter. We support these expectations
by presenting numerical results based on four different values of the heavy
quark mass $am_h$, up to six different values of the light quark mass
$am_\ell$, and include, for the first time, preliminary data at a second value
of the gauge coupling $\beta$. Our model can be embedded in scenarios
describing the Higgs boson either as a pseudo Nambu-Goldstone boson or a
dilaton-like particle.
