
The cosmological constant problem, characterized by a 10^122 discrepancy between theoretical vacuum energy and observed cosmic expansion, fundamentally relies on integrating quantum fields down to the theoretical Planck length (10^-35 meters). This paper proposes that the Planck baseline is a mathematical extrapolation devoid of physical geometry. By applying the General Theory of Correspondence, we establish the true geometric floor of spacetime at 10^-31 meters. Using standard energy-length proportionality, we demonstrate that a 10^-31 meter spatial boundary mathematically correlates to exactly 1.97 x 10^15 GeV. This explicitly identifies the structural floor of the universe as the established Grand Unified Theory (GUT) scale. Furthermore, we demonstrate that this precise geometric limit acts as a master constant, simultaneously resolving the historical proton decay paradox by structurally preventing continuous quantum tunneling, and perfectly predicting the observed neutrino mass spectrum via the Seesaw Mechanism.
General Theory of Correspondence, Grand Unification Scale, GUT Scale, Vacuum Energy Divergence, Cosmological Constant Problem, Proton Containment, Proton Decay, Neutrino Mass, Seesaw Mechanism, Geometric Floor, Spacetime Geometry, Planck Length, Super-Kamiokande, Quantum Field Theory.
General Theory of Correspondence, Grand Unification Scale, GUT Scale, Vacuum Energy Divergence, Cosmological Constant Problem, Proton Containment, Proton Decay, Neutrino Mass, Seesaw Mechanism, Geometric Floor, Spacetime Geometry, Planck Length, Super-Kamiokande, Quantum Field Theory.
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