Primordial Mass and the Yang–Mills Gap: A Mechanical Interpretation of a Pre‑Condensed Mass State in the Vacuum Manifold

This paper proposes a mechanical interpretation of the Yang–Mills mass gap using the framework of the Zero‑Point Manifold and the dual‑gate Planck architecture developed in prior work. In this model, the “mass” associated with gluons is not realized inertial mass, but a form of primordial mass—a pre‑condensed tension state arising in the internal waiting room of the manifold after flux knots are expelled through the internal Planck Gate. These flux structures acquire the conditions for mass while confined inside the manifold system, but cannot realize mass until they cross the external Planck Gate into the 3D space‑time weave. The mass gap therefore corresponds to the mechanical pressure of flux knots in this primordial zone, not to any intrinsic gluon mass. This interpretation reframes the mass gap as a natural consequence of the manifold’s pressure‑relief architecture—the same dual‑gate system that governs black‑hole ingestion, SPIZ decompression, manifold fueling, and cosmological equilibrium.