Developing HGUT’s topological account of strong linking, weak transformation, baryon identity, and particle decay.
Programme Overview
This program investigates whether the phenomena described by strong and weak interactions can emerge from distinct topological mechanisms within the Harrison-Knot substrate. Strong behavior is associated with robust linking and confined internal structure, while weak behavior is associated with permitted core transformation and identity change.
Immediate Milestone
Complete the target-space and matter-geometry analysis required before proton, neutron, and baryon claims can be fully derived.
Active Objectives
Formalize the strong-linking mechanism.
Define the weak core-transformation mechanism.
Preserve the Strong-A and Strong-B conceptual firewall.
Derive baryon-number-like topological identity.
Explain proton stability.
Model neutron transformation and decay.
Determine the physical status of gluons and weak mediators.
Recover observed interaction phenomenology.
Evidence Trail
This ledger records the mathematical, computational, conceptual, and numerical work already completed within this programme.
Strong linking and weak core-unwinding have been separated conceptually.
Baryon identity has been framed as a topological quantity.
Proton stability and neutron transformation have been identified as dependent gates.
The particle-spectrum program has been organized around Harrison-Knot families.
Volume X manuscript development has begun.
The status of gluons has been reframed as an empirical reconstruction problem rather than an ontological assumption.
Shared Mathematical Foundation
The master Lagrangian and baseline displacement, phase, interaction, and conservation equations are already established. The work on this page concerns solving, validating, extending, and testing their consequences in this specific physical sector.
Active Research
Successful derivations, failed simulations, replications, corrections, and falsifying evidence all belong in the evidence trail.
