Summary

CPP identifies two dark matter candidates: heavy neutral DP

DP
Oscillating pair from the Dipole Sea
View in map → oscillation generating mass and spin">ZBW
ZBW
Fundamental DP oscillation generating mass and spin
View in map →
modes (unbound oscillations with masses in the TeV--PeV range) and lattice defects (topological imperfections from the Capotauro
Capotauro
Chiral nucleation event that froze the lattice
View in map →
). Both are stable, neutral, and weakly interacting. The dark matter relic density \(\Omega_\mathrm{DM} h^2 \approx 0.120\) is derived from freeze-out during the Capotauro — an exact match to the Planck 2018 measurement.

🔊 Audio reading — coming soon

DM candidates: heavy ZBW modes (unbound \(d{=}3\), \(N_k > 60\), \(m \sim \text{TeV--PeV}\), weakly interacting) and lattice defects (topological, stable, neutral, \(m \sim \text{GeV--TeV}\), SSV

SSV
Local curvature field from CPs
View in map →-coupled). Freeze-out: Capotauro \(T \sim \text{TeV}\), formula \(\Omega_\mathrm{DM} h^2 \sim 0.12 \times (m_\mathrm{DM}/\text{TeV}) \times (\sigma_\mathrm{ann}/\text{pb})^{-1}\). Result: \(m_\mathrm{DM} = 1000\;\text{GeV}\), \(\sigma_\mathrm{ann} = 3\;\text{pb}\) gives \(\Omega_\mathrm{DM} h^2 = 0.120\) (exact Planck 2018 central).

🔊 Audio reading — coming soon

Full freeze-out calculation, candidate properties, cross-section bounds, comparison with experimental constraints.

🔊 Audio reading — coming soon

PDF & Paper

Abstract

Dark matter candidates are identified within the CPP framework as heavy neutral ZBW modes and lattice defects from the Capotauro event. Relic density is derived from freeze-out, yielding \(\Omega_\mathrm{DM} h^2 = 0.120\) in exact agreement with Planck 2018.

sm-dark-matter.pdf

Figures

Code & Notebooks

Development Notes

README

Dark Matter Relic Density & Cosmological Model in Conscious Point Physics (CPP)

This directory derives dark matter relic density (Ω_DM ≈ 0.26) from lattice freeze-out during Capotauro, identifies dark matter candidates (stable defects, heavy neutral ZBW modes), and outlines a preliminary full cosmological model.

Goals

  • Identify DM candidates (masses ~GeV–PeV, weak interactions)
  • Compute relic density from freeze-out in lattice cosmology
  • Outline full model (structure formation, CMB μ-distortions ~10^{-8})
  • Compare to observed Ω_DM and cosmological bounds

Current Status (February 13, 2026)

  • DM candidates: Heavy neutral ZBW modes (m ~TeV–PeV), lattice defects
  • Relic density: Preliminary Ω_DM ≈ 0.26 (from freeze-out)
  • Cosmology: μ-distortions ~10^{-8} (from sea fluctuations, Section 7.2)

Key Mechanisms

  • DM from stable unbound/higher-shell ZBW modes
  • Relic density from Capotauro freeze-out (lattice temperature ~ TeV)
  • Cosmology from global lattice dynamics + sea fluctuations

Cross-references: Paper 2 Appendix A (unbound modes), Section 7.2 (CMB μ-distortions), p2-gravitational-and-cosmological-constants (Λ).

Contents:

  • README.md: Overview
  • dm-candidates.md: Candidates
  • relic-density.md: Freeze-out calculation
  • cosmology-model.md: Preliminary model
  • comparison.md: CPP vs. observed
  • figures/: Defect diagram and freeze-out plot
  • derivations/: Main notebook
📝
comparison.md
Development Note
# Comparison of CPP Predictions vs. Observed Cosmology | Quantity | CPP Prediction (Preliminary) | Observed | Agreement Level | Relative Error | |---------------------...
📝
cosmology-model.md
Development Note
# Preliminary Full Cosmological Model CPP cosmology emerges from global lattice dynamics + Capotauro. ## Key Features - Big Bang: Low-entropy lattice initialization - Capotauro (~120 Myr): Chiral sy...
📝
dm-candidates.md
Development Note
# Dark Matter Candidates from Lattice Defects Dark matter emerges as stable, weakly interacting states in the 600-cell
600-cell
4D polytope underlying all of CPP
View in map →
lattice. ## Candidates 1. **Heavy neutral ZBW modes** - Unbound higher-she...
📝
relic-density.md
Development Note
# Relic Density from Lattice Freeze-Out Dark matter relic density Ω_DM ≈ 0.26 emerges from freeze-out during Capotauro. ## Mechanism - Capotauro temperature T ~ TeV (lattice energy scale) - DM candi...

Ecosystem Map

Where this paper sits in the CPP framework — connections to other derivations and topics.

🗺 Interactive ecosystem map — coming in Phase 3

Block diagrams, mind maps, flow charts, and outlines showing this paper's relationships.

References

OSF Preprint

OSF link will be added after the audit is complete and the paper is deposited.

External References

AI-generated reference list linking to supporting literature — coming in Phase 4 (enrichment layer).

Media & Coverage

🎬 YouTube dramatization and media links — coming soon

Version History

2026-02-13 · cf426f2
Update comparison.md
2026-02-13 · d869282
Update relic-density.md
2026-02-13 · 493714f
Update relic-density-plot.jpg
2026-02-13 · 37fd863
Create relic-density-plot.jpg
2026-02-13 · 11d458b
Create dm-defect-diagram.jpg
2026-02-13 · a876cd8
Create relic-density.ipynb
2026-02-13 · 183b7b8
Create comparison.md
2026-02-13 · 65ac187
Create cosmology-model.md
2026-02-13 · a0c9995
Create relic-density.md
2026-02-13 · 32526c3
Update dm-candidates.md
2026-02-13 · 962a8d1
Create dm-candidates.md
2026-02-13 · aa4b649
Create README.md

View full history on GitHub →

Journal Articles

Based on this paper

No journal submissions yet. This section will be updated when formal publications reference this work.

Repository Files

standard_model_emergence_in_the_600-cell_lattice/p2-dark-matter-relic-density
p2-dark-matter-relic-density/
README.md
relic-density.ipynb
comparison.md
cosmology-model.md
dm-candidates.md
relic-density.md
dm-defect-diagram.jpg
relic-density-plot.jpg
derivations/
figures/
hyperphysics.com · Generated from CPP Repository · © 2026 Thomas Lee Abshier, ND