Topological Web of the Universe: Hypothesis on the External Feeding of Galaxies through Gravitational Gates via Fractal Quantum Threads

1. Testing the Hypothesis of Mass Distribution

The principal factor for the existence of dark matter is the ultra-high rotational velocity of stars on the periphery of galaxies. Classical baryonic matter is insufficient to hold them. The hidden mass creating the centripetal attraction exceeds the mass of the central core (Sagittarius A*) by 230,000 times.

If we assume this mass is materially present on "our" side of space, we encounter a geometric collapse. According to General Relativity, such density would form a black hole with a radius of 3 trillion kilometers — 250 times larger than the Solar System. Since the actual radius of Sagittarius A* is only 12 million kilometers, the presence of dark matter on our side is completely refuted.

2. Membrane Nature of the Throat

Since there is no mass on our side, the only logical source remains the central puncture of space. The supermassive black hole is redefined not as a collector of matter, but as Gravitational Gates — an active interface for the distribution of forces.

At these Gates, a strict membrane balance operates between the suction force from the opposite side and the counter-force of retention (magnetic fields and centrifugal rotation). The dimensionless spin parameter of Sagittarius A* is measured at a* = 0.90 ± 0.06, meaning it rotates at 84%–96% of the theoretical maximum.

3. Fractal Web of Threads

A pure force of 926 N/kg at the throat is catastrophically insufficient to hold stars at the periphery if it dissipates according to Newton's law (1/r²). At the outskirts, only 10⁻¹⁹ N/kg would remain, whereas stars require 10⁻¹⁰ N/kg for stability.

The Universe solves this through a fractal web of quantum threads (linear channels or relic strings). The principle is simple: inside a thread, the gravitational flux is confined and does not dissipate into space. Emerging from the Gates, the main quantum sleeves divide fractally, and the force decays linearly (1/r), not quadratically (1/r²).

4. Detection Methods

The hypothesis is fully testable using modern astronomical instruments. Key targets include:

• Faraday Effect: SKA Radio Array — detect magnetic cables of 10⁻⁹ T radiating from the galactic core.
• Gravitational Microlensing: Euclid Space Telescope — search for fractal image splitting ("Einstein's lace").
• Pulsar Timing: IPTA Consortium — measure microscopic fluctuations from vibrating quantum threads.

5. Mathematical Foundation

The model is derived from Einstein's equations for a one-dimensional topological defect (cosmic string) with linear mass density μ:

For a thread stretched along the z-axis, the energy-momentum tensor components take the form:

The solution yields a space with a conical defect and a logarithmic potential:

The resulting force decays linearly: F(r) ∼ 1/r, perfectly matching the flat rotation curves of galaxies.

6. Conclusion

The proposed model resolves the dark matter crisis by describing a stable hydrodynamic and topological process: external ordinary mass presses on the Gravitational Gates of our center, while the fractal network of quantum thread-cables evenly distributes this impulse throughout the galaxy. The vacuum turns out to be a complex engineering network of the Universe.