The Mystery of Coronal Heating as TRB Buffer Saturation: Dissolving the Thermodynamic Paradox via Lattice Friction

The "Mystery of Coronal Heating" has baffled astrophysicists for over 80 years: the solar corona reaches temperatures of 1 to 3 million °C, while the underlying photosphere is a mere 5,500 °C. In classical continuum physics, this violates the Second Law of Thermodynamics, as heat cannot spontaneously flow from a colder body to a hotter one. Standard Magnetohydrodynamics (MHD) attempts to resolve this via Alfvén waves or nanoflares, but these continuous fluid models require infinities, fine-tuning, and divergent mathematics. In this paper, we dissolve the paradox within Computational Finitism by redefining temperature not as the kinetic agitation of a continuous gas, but as Lattice Friction: the frequency of Chiral Resets required to clear the Topological Redundancy Buffer (TRB). We demonstrate that the Sun represents a region of high voxel density (high processing capacity), while the surrounding vacuum represents a sharp drop in network addressing capacity. As the Modulo-9 energy flux crosses the photosphere boundary, the local capacity drops below the flux threshold, forcing the TRB buffer into massive saturation. The resulting millions of Chiral Resets per tick manifest macroscopically as the 3,000,000 °C corona. The thermodynamic paradox is an illusion; the universe is not violating the Second Law; the hardware is simply working harder to prevent a stack overflow.