After the recent runs of the Large Hadron Collider failed to find any trace of sparticles predicted by the MSSM, the plurality of scientists went as far as to proclaim Supersymmetry dead. This paper will give strong arguments, all of which are supported by experimental evidence, to the contrary. The problem that led to the failure to detect the sought after sparticles in the LHC probes of new physics beyond the Standard Model was in the low 1 TeV energy scale of the spontaneous Supersymmetry breaking and this paper will present a formula that sets the scale above 10 TeV and bellow 100 TeV. The formula in question unites the running values of the fine structure constant, the strong coupling constant and the electron Yukawa coupling. The results obtained for the fine structure constant when the Q scale equals the Z boson mass is in full agreement with the experimental results as is the world average for the strong coupling constant as well. The predictions of the formula for the running of the strong coupling constant are also in great agreement with experimental result on all measured values of Q, including the most recent CMS collaboration measurements that used the double-differential inclusive jet cross section as a function of the jet transverse momentum and the absolute jet rapidity where they collected the data from LHC pp collisions at 8 TeV. The formula will also eliminate the problem of infinities in calculations of the running of the fine structure constant, known as the Landau Pole, and it will set the mass of the observable universe as the natural UV cutoff.