  We propose UV complete (Partially) Composite Higgs models with compositeness
scale up to the Planck scale assisted by a novel mechanism. This mechanism is
based on softly breaking a global $ \mathbb{Z}_2 $ symmetry by technically
natural small vacuum misalignment, dynamically triggering the electroweak
symmetry breaking and Standard Model fermion mass generation. This mechanism
can be present in various models based on vacuum misalignment. For
concreteness, we demonstrate it in a minimal partially composite two-Higgs
scheme, where the Higgs is a mixture of a composite and an elementary state,
transforming odd under an $ \mathbb{Z}_2 $ symmetry. For this concrete model
example, all the dimensionful fundamental parameters are approximately $
\mathcal{O}(10^{18}) $ GeV. We study the vacuum stability of this model by
investigating the renormalization group running of the quartic coupling of the
Higgs. Furthermore, the parameter space can already be searched by
gravitational waves from a confinement-induced phase transition. Finally, the
mass and mixing of the neutrinos may be naturally generated via loops of a
second Higgs doublet, transforming even under the $ \mathbb{Z}_2 $ symmetry,
which may be challenged by lattice calculations and a more accurate measurement
of the top mass.
