  We reassess employing the holographic technique to the description of 4D
minimal composite Higgs model with $SO(5)\to SO(4)$ global symmetry breaking
pattern. The particular 5D bottom-up holographic treatment is inspired by
previous work in the context of QCD and it allows to study spin one and spin
zero resonances. The resulting spectrum consists of the states transforming
under the unbroken $SO(4)$ subgroup and those with quantum numbers in the
$SO(5)/SO(4)$ coset. The spin one states are arranged in linear radial
trajectories, and the states from the broken subgroup are generally heavier.
The spin zero states from the coset space correspond to the four massless
Goldstone bosons in 4D. One of them takes the role of the Higgs boson.
Restrictions derived from the experimental constraints (Higgs couplings, $S$
parameter, etc.) are then implemented and we conclude that the model is able to
accommodate new vector resonances with masses in the range $2$ TeV to $3$ TeV
without encountering phenomenological difficulties. The couplings governing the
production of these new states in the processes of the SM gauge boson
scattering are also estimated. The method can be extended to other breaking
patterns.
