High-Coherence Structures in the Universe:  A Unified Informational Framework for Astrophysical Order

Kevin L. Brown, Independent Researcher
Published: November 2025
10.5281/zenodo.17614087

Informational Physics Ontology Paper

Abstract

This work introduces a unified, quantitative informational framework for identifying the most coherent and highly ordered astrophysical environments in the universe. The model is built upon five explicitly defined informational metrics—Coherence (Ω), Perturbation Stability (Γc), Recursive Informational Variance (RIV), Zero-Point Coherence Index (ZPCI), and Resonant Self-Integration (RSI)—each grounded in prior foundational work, including the Energy–Information Equivalence (EIE), THD Equilibrium Index (TEI), Recursive Energy Framework, Unified Informational Flow Equation (UIFE), and Awareness Continuum Mapping (ACM).

Together, these metrics form a composite coherence score:

A=Ω+Γc+RIV+ZPCI+RSI5,A = \frac{\Omega + \Gamma_c + RIV + ZPCI + RSI}{5},A=5Ω+Γc+RIV+ZPCI+RSI,

which enables a comparative ordering of astrophysical structures based on their informational organization and dynamical stability. Neutron stars, black hole exterior geometries, white dwarf crystalline cores, orbital resonance chains, and main-sequence stars are evaluated within this unified formalism.

The framework is strictly informational and non-causal: it does not assign life, agency, or subjectivity to astrophysical systems. Instead, it mathematically characterizes their degree of harmonic structure, stability, and recursive order using a coherent, falsifiable set of metrics that generalize across domains.

A comprehensive Earth-scale comparison is provided in Appendix A using ACM’s civilizational awareness vector:

W(t)=[I(t),S(t),A(t),C(t),R(t)],W(t) = [I(t), S(t), A(t), C(t), R(t)],W(t)=[I(t),S(t),A(t),C(t),R(t)],

along with a historical coherence table (1000–2000 CE), a projection through 2125 CE, and a 14-threshold informational progression from 1500 to 2130. These thresholds include structural, sensitivity, adaptivity, coherence, stability, interpretability, preservation, and horizon-alignment transitions, offering a rigorous educational framework for understanding long-scale informational development.

This manuscript provides a mathematically complete, observationally grounded foundation for identifying high-coherence astrophysical environments and for comparing them with Earth’s long-term informational trajectory.

Core Structure of the Framework

1. Five Informational Coherence Metrics

The paper defines five dimensionless, normalized metrics rooted in prior informational models:

• Coherence (Ω) — variance suppression and harmonic alignment

• Perturbation Stability (Γc) — resistance to external dynamical fluctuations

• Recursive Informational Variance (RIV) — stability of recursive state transitions

• Zero-Point Coherence Index (ZPCI) — entropy-modulated informational order

• Resonant Self-Integration (RSI) — harmonic alignment strength across structural modes

Each metric has explicit mathematical definitions and theoretical grounding.

2. Composite Coherence Metric AAA

A single scalar unifying all five metrics:

A=(Ω+Γc+RIV+ZPCI+RSI)/5.A = (\Omega + \Gamma_c + RIV + ZPCI + RSI)/5.A=(Ω+Γc+RIV+ZPCI+RSI)/5.

This enables direct comparison across astrophysical classes.

3. Evaluation of Astrophysical Systems

The model evaluates:

• neutron stars,

• black hole exterior geometries,

• white dwarf crystalline interiors,

• orbital resonance chains,

• main-sequence stars.

Neutron stars consistently achieve the highest composite coherence, followed by black hole exteriors and white dwarf crystalline cores.

4. Earth-Scale Coherence and the 14-Threshold Progression

Appendix A introduces the most detailed coherence trajectory yet published, spanning:

• six historical thresholds (1500–2020),

• 2027 detectability threshold,

• seven forward thresholds (2050–2130).

These thresholds describe increasing informational capacity:

• integration,

• sensitivity,

• adaptivity,

• coherence,

• reflectivity,

• interpretability,

• preservation,

• horizon-scale alignment.

All thresholds are derived from ACM components and are fully falsifiable.

5. Falsifiability and Observational Pathways

The framework is testable through:

• pulsar timing variance,

• spectral coherence of black hole exteriors,

• crystallization signatures in white dwarfs,

• resonance-locking stability in exoplanetary systems,

• long-scale Earth-system informational metrics.

No speculative or causal claims are made; all results derive from structural informational analysis.

Key Contributions

1. A Unified Informational Framework for Astrophysical Coherence

This paper consolidates multiple informational theories into a single, operational five-metric structure.

2. Cross-Domain Consistency

All metrics are grounded in previously published informational foundations:

• EIE contributes entropy/energy structure,

• TEI provides perturbation equilibrium principles,

• Recursive Energy underpins long-scale stability,

• UIFE defines harmonic informational flow,

• ACM provides the civilizational vector for Earth comparison.

3. First Quantitative Ordering of Astrophysical Coherence

Enables structured comparison between neutron stars, white dwarfs, resonance chains, and stellar interiors.

4. Civilizational Coherence Mapping (1000–2130 CE)

Includes the first multi-century coherence trajectory extending through 2125.

5. Fully Falsifiable and Non-Speculative

Every metric is observationally grounded and mathematically transparent.

Reviewer Guidance

Reviewers are encouraged to evaluate the work on:

1. Mathematical rigor of the five-metric definitions

2. Consistency with EIE, TEI, UIFE, and ACM foundations

3. Validity of the composite metric formulation

4. Coherence of the astrophysical ordering

5. Soundness of the Earth-scale mapping and thresholds

6. Clarity and completeness of the falsifiability criteria

The framework is informational and descriptive, not a new physical theory.

Keywords

Astrophysical Coherence,
Informational Metrics,
Composite Coherence Score,
Neutron Stars,
White Dwarfs,
Black Hole Exteriors,
Orbital Resonance Stability,
Energy–Information Equivalence,
Recursive Stability,
Informational Potential,
Awareness Continuum Mapping,
Triune Harmonic Dynamics,
Informational Geometry,
Long-Scale Coherence,
Threshold Mapping,
Informational Structure.