UQGAF: a higher-categorical architecture for topological unification: From quantum geometric string networks to a worked winding-state dynamics
Description
This combined edition develops the Unified Quantum Gravity Architectural Framework (UQGAF), a proposal in which persistent matter and spacetime geometry arise as descriptions of quantum geometric string networks. It connects a higher-categorical bulk/boundary architecture to explicit winding-state dynamics, including a self-adjoint quantum Hamiltonian, a discrete spectrum, a finite thermal trace and unitary transitions between sectors.
The volume includes all eight revised Appendices A-H, covering winding energies and physical mass operators, the electron observable, nucleon assignments, gravitational-scale and stress calculations, geometric definitions, the preserved forty-entry catalogue, continuum controls and neutrino hypotheses. It distinguishes established calculations, conditional physical constructions and proposed connections between descriptions.
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UQGAF a higher-categorical architecture for topological unification.pdf
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Related works
- Is supplement to
- Preprint: 10.5281/zenodo.19832294 (DOI)
References
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