Paper 2. Quantum Access to the Kosmocosm Quantaverse: Collapse Dynamics and Resonant Access

This paper develops the dynamical structure underlying the Kosmocosm framework, in which the observable Universe is modeled as a spacetime-bearing 3-sphere shell embedded within a larger closed 4-sphere geometry. The interior region, termed the Quantaverse, is treated as a non-spacetime archive of discrete, determinate universal states.

Building on Paper 1, I formalize the shell–Quantaverse interface using a boundary-regulated Objective Reduction mechanism grounded in the Diòsi–Penrose gravitational self-energy criterion. The Crellon (ϰ) is identified as the boundary-limited reduction interval that emerges from gravitational self-energy accumulation at the shell interface. The Planck combination appears not as an imposed discrete scale, but as the limiting dimensional resolution defined jointly by ℏ, G, and c.

The manuscript derives the radial shell equation of motion from a Lagrangian formulation, clarifies energy bookkeeping during reduction events, and distinguishes between the continuously evolving Quantum Wave Function (QWF) and instantaneous Quantum Wave States (QWS) archived as Quantiles (ς). Collapse is treated as boundary-regulated and does not imply macroscopic superposition of classical Universe-scale states.

Finally, the paper explores the hypothesis that ordered biological microstructures may achieve sub-harmonic synchronization with boundary-regulated determinacy, providing a speculative physical basis for coherent awareness within the Kosmocosm ontology.

This work establishes the dynamical and boundary-consistent foundation required for subsequent investigations of biological development, memory, and consciousness within the Kosmocosm framework.

NOTE: 

This paper is part of a multi-paper research program developing the Kosmocosm framework.