Quantum field theory reveals that even empty space contains fluctuating energy, known as quantum vacuum fluctuations. When these fluctuations become coherent, they add constructively and produce immense energy densities in small volumes. According to general relativity, this energy curves spacetime. Within the proton’s Compton wavelength, such coherent fluctuations generate spacetime curvature strong enough to match the nuclear binding force that confines nucleons. Remarkably, this curvature als

When quantum vacuum fluctuations enter a high-coherence phase, their energy adds constructively, creating extreme spacetime curvature per Einstein's field equations. At the proton’s core, this curvature forms an event horizon—a semi-permeable boundary that traps vacuum energy and creates a pressure and energy gradient. As coherence drops across this gradient, a second semi-permeable surface forms, further reducing energy and pressure. This behavior mirrors fluid dynamics and can be modeled using