Low Information-Density Entities: Neutrinos as Probes of Stratified Reality

Low Information-Density Entities: Neutrinos as Probes of Stratified Reality

DOI:

John Swygert

November 25, 2025

Abstract

We extend the n-strata information-density model into the low-n regime, identifying neutrinos as ultra-sparse information entities (n ≈ –80 to –50) whose minimal ρ₀ sharply reduces gradient drag, enabling traversal through atomic voids and quantum fields with negligible interaction. This low-n symmetry complements the high-n coherence domain developed in earlier work, revealing reality as a bidirectional stratified continuum. We derive the qualitative interaction mechanism, show how sparse ρ₀ avoids entanglement with electromagnetic and strong-field structures, and outline predictions for neutrino behavior in extreme-density environments. The analysis refines the physicality threshold concept and positions neutrinos as natural probes of stratified information structure.

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1. Introduction

The n-strata model parameterizes physicality by information density

\rho_0(n) \propto \exp(\alpha n), \qquad \alpha \approx 1.1,

Low-n systems (n < 0) exhibit extreme sparsity—minimal quantum numbers, weak coupling, and negligible gradient drag.

Neutrinos are the clearest empirical examples. With masses ~0.1 eV/c², no electric charge, and weak-only interactions, their effective information density is on the order of ρ₀ ~ 10⁻⁵⁰ bits·m⁻³. Empirical interaction probabilities of ~10⁻²⁴ per nucleus (PDG 2024) place them firmly within the low-n sector.

This note supplements the main n-strata derivation (Swygert 2025; Zenodo DOI: 10.5281/zenodo.17717368) by establishing the low-n calibration and demonstrating how sparsity enables neutrino “freedom.”

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2. Mapping Neutrinos to the n-Stratum Index

Table 1. Low-n calibration (illustrative)

System	Typical n	ρ₀ (bits·m⁻³)	Interaction Scale	Reference
Planck foam / vacuum	< –100	< 10⁻¹⁰⁰	Instant decoherence	PDG (2024)
Neutrinos	–80 to –50	~10⁻⁵⁰	Weak only (~10⁻¹⁸ m range)	PDG (2024)

Neutrinos’ extremely negative n-values minimize

\frac{d}{dn}\ln \rho_0,

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3. Freedom Mechanism: Exploiting Atomic Emptiness

Atoms are ~99.999% spatial void: electron “clouds” occupy probabilistic EM-field regions, and nuclei are confined to ~10⁻¹⁵ m. Classical density arises from EM repulsion and Pauli exclusion, not continuous matter.

Neutrinos avoid these constraints for two reasons:

1. No electromagnetic or strong-force coupling
   They lack the hooks required for entanglement with atomic fields.
   
   

2. Ultra-sparse ρ₀ producing negligible gradient overlap
   Interaction probability scales qualitatively as
   
   

   P \propto \exp\!\left(-\frac{\Delta n}{\alpha}\right) \times g_{\text{weak}},

For Δn ~ 100, this form qualitatively reproduces the extremely small cross-sections reported by PDG without requiring specific numerical tuning.

The result is pass-through behavior: neutrinos traverse dense matter via void-dominated paths with minimal interaction.

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4. Cosmological Significance

Neutrino transparency is essential to stellar and cosmic evolution:

• In core-collapse supernovae, neutrinos carry ~99% of the energy flux.

• Efficient escape through dense plasma enables shock revival and heavy-element synthesis.

• Weak-force coupling strength is constrained:

• Slightly stronger → neutrinos become trapped, altering explosions.

• Slightly weaker → crucial weak decays fail, destabilizing nuclear structure.

Within the n-strata framework, neutrino freedom preserves information flow between high-n (dense, coherent) regions and the low-n background, preventing stratified isolation.

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5. Falsifiable Predictions

1. High-density plasma modulation
   Neutrino scattering should increase modestly (~few percent) in high-coherence plasmas due to local ρ₀ enhancement.
   
   

2. Laboratory analogs
   Dense Z-pinch or laser-compressed plasmas with sustained coherence should show measurable attenuation relative to baseline weak-force predictions.
   
   

3. Weak-interaction tuning experiments
   Controlled variations in effective coherence (e.g., via lattice confinement or plasma ordering) should produce small but detectable shifts in observed interaction rates.
   
   

These predictions differentiate the n-strata model from purely Standard Model expectations without modifying weak-force fundamentals.

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6. Conclusion

Neutrinos embody the low-n limit of the n-strata model: ultra-sparse information density, minimal coupling, and near-frictionless propagation through atomic voids. Their behavior supports a bidirectional stratification of reality—high-n coherence on one side, low-n sparsity on the other. As natural probes of the emptiness structure of matter, neutrinos refine the physicality threshold and anchor the low-density extension of the information-density framework.

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References

• Particle Data Group (PDG). (2024). Review of Particle Physics. Progress of Theoretical and Experimental Physics, 2024(8), 083C01.

• Swygert, J. (2025). Information-Density Stratification: Physicality Thresholds and Gradient Drag. Zenodo. DOI: 10.5281/zenodo.17717368.