PRIMORDIAL NUCLIDE SEEDING VIA TOPOLOGICAL RANK COLLAPSE: AN ADDENDUM TO THE SATURATED QUANTUM HORIZON (VERSION 2)

This paper presents an addendum to ‘The Non-Inert Primordial Chemistry of Saturated Horizon Discharges’ [DOI: 10.5281/zenodo.22978231]. Operating within a coordinate-free Clifford Spacetime Algebra, the framework models terminal core compaction inside a concentric spherical horizon capacitor as a Colour-Flavour Locked quark-gluon condensation phase change. Upon reaching terminal Bekenstein saturation, a discrete matrix rank collapse, triggers a non-linear metric inversion. This operation projects the subatomic ledger symmetrically across spatial basis matrices via an isotropic normalisation driving a macroscopic three-dimensional radial splay discharge that maps directly to the stable Iron-56 structural hardware ceiling. We resolve the conventional spectroscopic dilution paradox by formalising the non-inert behaviour of transition-metal chemistry in vacuo through Clifford Matrix Partition Functions. Rapid homonuclear nucleation and mineral depletion convert raw iron-peak gaseous ions into refractory silicate dust grains, effectively hiding the primordial discharge from narrow optical atomic spectroscopy and routing data correlations into broad continuum infrared signatures and Diffuse Interstellar Bands. To transition the framework to empirical validation, we provide explicit observational verification parameters—including a primordial baryon dispersion invariant—to allow direct cross-correlation testing using high-precision fast radio burst (FRB) transient backgrounds.