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In certain five dimensional gauge theories compactified on the orbifold$S^1/Z_2$ the Standard Model Higgs doublet is identified with the zero mode ofthe fifth component of the gauge field. This gauge-Higgs unification scenariois realized at high energies, and the Standard Model as an effective theorybelow the compactification scale satisfies the boundary condition that theHiggs quartic coupling vanishes at the compactification scale (gauge-Higgscondition). This is because at energies above the compactification scale, thefive dimensional gauge invariance is restored and the Higgs potential vanishesas a consequence. We consider scenario where top quark Yukawa and weak gaugecoupling unification can be realized and identify the compactification scale asone at which this two coupling couplings have the same value. Taking intoaccount the experimental uncertainties in measurements of the top quark massand the QCD coupling constant, the Higgs mass prediction of 119-126 GeV fromthe gauge-Higgs unification scenario is consistent with the experimentallymeasured value of 125-126 GeV. More precise measurements of the top quark massand the QCD coupling constant are crucial to reduce the interval of the Higgsmass prediction and thereby test the feasibility of the gauge-Higgs unificationscenario.

125 GeV Higgs Boson From Gauge-Higgs Unification: A Snowmass white paper