Journal of Modern Classical Physics & Quantum Neuroscience

Abstract

Most cosmological models begin with matter, energy, fields, or spacetime as fundamental entities. In contrast, this work explores a different starting point: the possibility that reality emerges from reciprocal mapping between two primordial domains rather than from pre-existing physical objects. We propose the Simultaneous Galaxy Emergence and Primordial Mapping Framework (SGEM-PM), a conceptual–computational framework in which two non-identical primordial domains, denoted A and B, continuously attempt to represent one another through reciprocal mapping. The incompleteness of this mapping generates Mapping Divergence (Δ), which subsequently gives rise to a Dynamic Possibility Field (Ψ), Preservation Principle (Π), Twist/Vortex Formation (T), Reality Locking (R), and Matter Emergence (M). The framework therefore model’s reality as an emergent consequence of ongoing mapping dynamics rather than as a primitive substrate.

The proposed formulation is conceptually related to ideas from information theory cybernetics, complex systems and self-organization relational and category-theoretic approaches and process-oriented views of reality [1-16]. However, SGEM-PM differs from existing approaches by introducing a unified emergence pipeline:

A ≠ B → A ⇄ B → Δ → Ψ → Π → T → R → M

Within this framework, the Big Bang is interpreted as the emergence of an interference region (Γ) between primordial domains, cosmic inflation is modeled as the expansion of Γ, and galaxies are treated as large-scale reality-locking structures emerging simultaneously across the interference region.

To support reproducibility and computational exploration, we introduce the AB Genesis Simulator together with a benchmark framework based on measurable emergence metrics, including Mapping Divergence Index (MDI), Possibility Density (PD), Preservation Strength (PS), Twist Intensity (TI), Reality Locking Index (RLI), and Matter Emergence Index (MEI). These metrics provide an initial experimental environment for evaluating emergence dynamics generated by the framework. The contribution of this work is not the proposal of a validated physical cosmology, but the introduction of a benchmarkable conceptual-computational framework that connects divergence, possibility, preservation, and reality formation within a single emergence pipeline. The framework provides a foundation for future investigations into emergence modeling, complex adaptive systems, computational cosmology, and operator-based representations of reality.