A Dynamical Equilibrium Model for Black Hole Singularity Resolution: The Mass-Light Synchronization Hypothesis

The core of a classical black hole, the singularity, is considered a failure of General Relativity, predicting infinite density. This paper proposes a quantum-gravity motivated hypothesis—the **Mass-Light Synchronization Hypothesis**—which posits that the black hole interior is not a static singularity, but a dynamic, self-regulating system in continuous, synchronous resonance between matter and radiation states. This state of **Dynamical Equilibrium** is maintained by the rigorous and reversible conversion of mass (fermions) into light (photons) and vice-versa, thereby creating a gravitational buffer that prevents the density from ever reaching infinity. We show that the extreme gravity and quantum effects within the horizon enable transformations forbidden in flat spacetime, making the black hole the ultimate cosmic equalizer and suggesting that its interior might fundamentally be a highly excited, synchronized state of a Kugelblitz.