Within the Scale-Symmetric Theory we described mass spectrum of the composite Higgs boson with a mass of 125.00 GeV. Due to the quadrupole symmetry characteristic for the weak interactions and due to the interactions of the Higgs-boson pairs with the dominant gluon balls 3.30 GeV, there appear two masses 126.65 ± 0.73 GeV and 123.35 ± 0.73 GeV. Due to the confinement characteristic for the weak interactions, there arise the pairs of Higgs bosons. In their decays appear groups of photons composed of two photon pairs, i.e. composed of four photons, or quadrupoles of leptons. The decays of the Higgs boson pairs into 4 photons lead to the mean central mass of Higgs boson equal to 126.65 GeV whereas the decays into the quadrupoles of leptons lead to the mean central mass 123.35 GeV or 125.00 GeV. The reformulated Theory of Branching Ratios leads to conclusion that the relative signal strength of the decays into two photons to the decays into two Z bosons should be in approximation 1.87 times higher than predicted within the Standard Model. Since there is the pairing of the Higgs bosons then for the decays into two photons, the relative signal strength in relation to the Standard Model is 1.732 whereas for ZZ channel is 0.926.