Empirical Confirmations of the Superdense Ether Theory: A Comparative Analysis with Plasma MHD, Topological Solitons, and Laboratory Observations (1980–2026)

Jens  Jensen

ПРЕПРИНТ

Эта статья является препринтом и не была отрецензирована.
О результатах, изложенных в препринтах, не следует сообщать в СМИ как о проверенной информации.

Empirical Confirmations of the Superdense Ether Theory: A Comparative Analysis with Plasma MHD, Topological Solitons, and Laboratory Observations (1980–2026)

J. Jensen

2026-04-28

https://doi.org/10.24108/preprints-3115083

The Superdense Ether Theory (Jensen, Abdurakhmanov, Agayev, 2026) pos- tulates that physical vacuum is a superdense, superfluid 4D continuum, and ele- mentary particles are topological solitons (Hopf fibrations) in this medium. This paper compares the theory’s predictions with five independent sources: (1) the lab- oratory observation by A. Abdurakhmanov (1980-81) of alcohol→water transition in a sealed ampoule; (2) exact MHD soliton solutions by Kamchatnov (1982); (3) Ra˜nada’s topological electromagnetic fields (1989); (4) Oleinik’s quantum soliton model of the electron (1997); and (5) numerical MHD relaxation simulations by Smiet, Candelaresi et al. (2015-2016). All five converge on the same mathematical structure: the Hopf invariant H determines stability, energy, and mass of localized structures in a continuous medium. The Superdense Ether Theory provides the unified framework that explains all five observations as manifestations of the same underlying physics.

Ссылка для цитирования:

Jensen J. 2026. Empirical Confirmations of the Superdense Ether Theory: A Comparative Analysis with Plasma MHD, Topological Solitons, and Laboratory Observations (1980–2026). PREPRINTS.RU. https://doi.org/10.24108/preprints-3115083

Список литературы

1. References

2. [1] J. Jensen, A. Abdurakhmanov, A. Agayev, “Superdense Ether Theory: Founda-

3. tions,” Zenodo 19310352 (2026).

4. [2] J. Jensen, “Proton-Electron Mass Ratio from Topology,” Zenodo 19352471 (2026).

5. [3] J. Jensen, “Responses to Key Objections Against the Superdense Ether Theory,”

6. Zenodo 19440837 (2026).

7. [4] J. Jensen, “Ether Ram: The Alhambra Principle — Extracting Energy from the

8. Ether Pressure Gradient,” Zenodo 19444381 (2026).

9. [5] A. Abdurakhmanov (1980-81), unpublished laboratory observation, Institute of Ra-

10. diophysics, Azerbaijan Academy of Sciences. Described in [1].

11. [6] A. M. Kamchatnov, “Topological solitons in magnetohydrodynamics,” Soviet Physics

12. JETP, Vol. 55, No. 1, pp. 69-73 (1982).

13. [7] A. F. Ra˜nada, “A topological theory of the electromagnetic field,” Physics Letters

14. A, Vol. 133, No. 7-8, pp. 339-343 (1989).

15. [8] V. P. Oleinik, “Quantum Theory of Self-Organizing Electrically Charged Particles:

16. Soliton Model of the Electron,” arXiv:quant-ph/9706031 (1997).

17. [9] V. P. Oleinik, “The Newest Development of Quantum Electrodynamics: Electron

18. as an Open Self-Organizing System, Superluminal Signals,” arXiv:quant-ph/0203031

19. (2002).

20. [10] C. B. Smiet, S. Candelaresi, D. Bouwmeester, “Self-organizing knotted magnetic

21. structures in plasma,” arXiv:1507.08780v1 (2015).

22. [11] C. B. Smiet, S. Candelaresi, D. Bouwmeester, “Ideal Relaxation of the Hopf Fibra-

23. tion,” arXiv:1610.04719v1 (2016).

ПРЕПРИНТ

ИНФОРМАЦИЯ

Использование куки-файлов