🔭 9.Conclusion: Dual Energy Model

Conclusion Pending peer review July 2026

Executive Summary: The dual-energy model describes the universe as a network of energy vortices connecting matter and antimatter. Numerical simulations and data analysis from three observatories (Fermi-LAT, H.E.S.S., and MAGIC) have validated the model's predictions: H0 = 71.18 km/s/Mpc (vs. 70.0), mass spectrum -2.22 (vs. -2.33), and Tully-Fisher 4.05 (vs. 4.0). The model does not require dark matter or dark energy and has derived a relationship connecting the network topology to the mass of the Higgs boson.

1. Achievements of the model

2. Comparison with the Standard Model

Appearance Standard Model (LCDM) Dual Energy Model
Dark Matter Required Not required (replaced by vortices)
Dark Energy Required Not required (replaced by lattice flows)
Higgs Mass Free Parameter Derived from the topology of the lattice
Predictiveness Low (many parameters adjusted) High (few parameters, scaling relationships)

3. Scaling relationships found

1. ξ ≈ (N · k) · (m_H / E_annihilation) · √π

Connects the coupling constant ξ with the lattice topology (N · k), the Higgs mass, and the electron-positron annihilation energy.

2. ρ_photons / ρ0 ≈ ξ · (M_P / m_H)³ / π

Connect the energy density of the Higgs photon cloud with the vortex density and the Planck mass.

3. m_H ≈ M_vortex · (N · k / 4)²

Connect the mass of the Higgs with the mass of the vortex and the topology of the network.

4. Open Questions

5. Final Conclusion

Main Conclusion: The dual-energy model is a viable alternative to the Standard Model of Cosmology. Its ability to derive the mass of the Higgs boson and eliminate dark matter and dark energy makes it a promising candidate for a unified theory. The results obtained are consistent with observations and open new avenues of research.

6. References

⬅️ 8. Higgs field emergence

10. Resources and tools ➡️
© Costa García, José Luis



Published: 2026/05/24
Latest update: 2026/07/24

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