Hypothesis of Dynamic Synthesis and Excess Mass Ejection
Hypothesis of Dynamic Synthesis and Excess Mass Ejection (Słowik Phenomenon) - EN V2 - Dynamic Mechanism of Black Hole Birth - 1 P = 2.8 M☉ = 8.27 km MAIN THESIS:1 P = 2.8 M☉ - indivisible minimal portion of matter necessary to break degenerate pressure and create event horizon. No 0.5 P black holes exist in nature. Black hole birth is a quantized phase transition in mass parameter space, not continuous collapse. 5 PILLARS OF SŁOWIK PHENOMENON: 1. Quantization of starting threshold (1 P): First Słowik Package (1 P = 2.8 M☉) is indivisible minimal mass to break degenerate pressure barriers and create horizon. No intermediate or partially filled packages. 2. Tendency to energy minimum: During collapse of core > minimum (e.g. 5 M☉), system seeks most stable compact gravitational state - exactly 2.8 M☉ (1 P) core. 3. Violent rejection of excess: Powerful energy released at collapse moment (supernova shock waves, radiation bursts) acts as repulsive force that violently blows away outer excess stellar matter. Example: 5 M☉ → 2.8 M☉ core + 2.2 M☉ ejected. 4. Formation of buffer (accretion disk): Excess mass that did not fit into primary collapse core (1 P) is ejected outward, creating dynamic buffer around newly formed object in form of accretion disk. Disk is not random environment, but physically required safety valve. 5. Evolution and smooth growth N > 1: Only after formation of stable core 1 P, black hole begins slow continuous accretion from buffer in disk, allowing gradual smooth mass increase. Coefficient N grows to 1.1, 1.5, 2.0 etc. ANALOGY TO NUCLEAR FUSION AND MASS DEFECT: Process Feature | Nuclear Fusion (Helium) | Słowik Phenomenon (Gravitational Collapse)System tendency | Achieving lowest stable energy state of atomic nucleus | Achieving most stable compact gravitational state (1 P = 2.8 M☉)Reaction to excess | Excess mass cannot remain in new nucleus - released as energy E=mc² | Excess mass of star is not immediately absorbed - is ejected by collapse explosion forceFinal effect | Stable quantized alpha particle + radiation | Stable black hole core (1 P) + buffer (accretion disk) around it ASTROPHYSICAL CONCLUSIONS: Słowik Phenomenon hypothesis explains why newly formed stellar black holes show high consistency in initial masses. Accretion disk is not random, but physically required safety buffer that receives excess matter ejected during quantized phase transition that black hole births are. Model complements mathematical apparatus of Package Formula, giving it deep physical dynamic content. CONNECTION TO SCHWARZSCHILD: 1 Package = 2.8 M☉ = 8.26 km Schwarzschild radius - calculated in Zenodo 22536942 and 21651625. Formula Rs = N × 8.27 km. Example: Cygnus X-1 = 7.57 P = 62.6 km, Sgr A* = 1.5M P = 12.7M km. FULL DOI FAMILY - 12 RECORDS: 10.5281/zenodo.21314918 - Reverse Higgs Mechanism - 15.8 m core - Rcore = G·M·m0/EH 2. 10.5281/zenodo.21625491 - CORE Monografia 5w1 PL - Original July 27, 2026 3. 10.5281/zenodo.21651625 - Paczkowy PL - 2.8 M☉ Schwarzschild 8.27 km 4. 10.5281/zenodo.21827082 - Beyond Electron Star - Finite Core 5. 10.5281/zenodo.21942162 - Gravitational Collapse Beyond NS Limit - energy budget 10^4-10^6 M☉, T_EW 159.5 GeV 6. 10.5281/zenodo.22210836 - Creation Forward V2 7. 10.5281/zenodo.22214662 - Creation Reverse V2 - Reverse Gravity 8. 10.5281/zenodo.22232949 - MAIN - Creation Live Forward-Reverse V2 - 15 min beta decay - 877.75 s - THIS FAMILY CORE 9. 10.5281/zenodo.22287434 - Beyond Limit V2 - Microscopic Quantum 2.8 M☉ - 10. 10.5281/zenodo.22288977 - Package Formula EN - Rs = N × 8.27 km - 11. 10.5281/zenodo.22289138 - Hexagonal n=6 - Periodic Table Black Holes 12. 10.5281/zenodo.22309772 - Microscopic Quantum Stabilization 15.8 m 13. 10.5281/zenodo.22536942 - Schwarzschild Radius Simple Calculations EN - 14. 10.5281/zenodo.22537928 - THIS RECORD - Hypothesis of Dynamic Synthesis - Słowik Phenomenon V2 ------->. 10.5281/zenodo.22232949
Authors
- Marcin Słowik (ORCID: https://orcid.org/0000-0001-8376-3414)
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-09-06
- DOI
- https://doi.org/10.5281/zenodo.22537928
- Primary Topic
- Astrophysical Phenomena and Observations
- Type
- article
- Field-Weighted Citation Impact
- 0.00