How Matter Forms – A USP Field Interpretation from Electron-Led Collapse

This work presents a refined model of how matter emerges after a black hole collapse, viewed through the USP Field framework. Unlike classical theories that begin with quarks or force-based assembly, this model starts with electrons as primary stabilizers of collapsed ultra-sub particle (USP) knots. As the universe expands and cools after a shatter event, free electrons interact with unstable spin domains. These interactions result in stable inward USP compression, forming protons, then neutrons, and ultimately complete atomic structures. Failed compressions lead to "dark matter" — quark-like masses without electron resonance. The process redefines matter as a crystallization of tension geometry, not particle stacking. Key sections explore: Post-black hole conditions and USP field saturation The electron’s role as the first actor in structure formation Neutron emergence as spin-based balance weight Failed quarks as the origin of dark matter This model offers a logically layered, field-based explanation of matter formation — uniting electron behavior, spin compression, and atomic cohesion within one continuum.