Vortons in the AMS

Matter as Topological Knots (“Vortons”) in the AMS

Matter is proposed to consist of stable, localized topological knots in the AMS, referred to as vortons. A vorton is not a particle in the classical sense, but a persistent geometric configuration of the substrate.

Key characteristics of vortons:

  • Topological stability: Vortons are stabilized by topology rather than by continuous energetic input. Their persistence arises from knot-like constraints in the AMS geometry.
  • Non-substantiality: Vortons do not exist in the AMS as foreign objects; they are specific configurations of the AMS.
  • Combinatorial structure: Complex matter arises from bound clusters of vortons forming lattices, chains, and higher-order structures. Chemical and nuclear structures correspond to higher-level vorton binding geometries.
  • Mass as resistance to reconfiguration: What is perceived as mass corresponds to the resistance of a vorton (or vorton cluster) to geometric reconfiguration of the AMS.

This view replaces the particle ontology with a geometric/topological ontology, where matter is emergent from stable substrate configurations.

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