The Vidyabhushan-Bounce Model: Cosmogenesis via Torsional Saturation, Solitonic Impedance, and Holographic Condensation
Year: 2026
Type: preprint
Abstract: Paper Description: Refining the Vidyabhushan-Bounce Model This paper represents a crucial evolution in the Vidyabhushan-Bounce theory. To ensure full mathematical and empirical compatibility with established physics, we have made precise corrections to our language and approach. Instead of treating the model as a contradiction to standard General Relativity and Quantum Mechanics, this updated framework serves as a Macro-Mechanical Translation—providing the structural and thermodynamic "plumbing" that underpins accepted cosmological equations. To ensure the mathematics make rigorous sense, we have made the following specific corrections to the theory's foundational language: From "Friction" to Solitonic Impedance: Previous iterations described mass as a literal "drag coefficient" or friction experienced by matter moving through the Universal Lattice. Because literal friction against a stationary lattice would cause objects to decelerate in a vacuum—violating the conservation of momentum and Newton's First Law—we have refined the language. Mass is now rigorously defined as Total Dynamic Impedance. This impedance arises only during acceleration, representing the work required to force the Universal Lattice to rearrange its internal geometry around a localized wave-knot (soliton). This mathematically preserves Newton's First Law while giving relativity a mechanical medium. Harmonizing Black Hole Thermodynamics via the Holographic Principle: Earlier drafts proposed that a black hole acts as a cosmic refrigerator that ultimately achieves zero entropy to birth a new universe. To resolve the conflict with the Bekenstein-Hawking formula (which proves black holes have the highest entropy in the universe), we have integrated the Holographic Principle. We mathematically separate the boundary from the core: the chaotic entropy of the progenitor star is encoded two-dimensionally on the event horizon, satisfying standard quantum gravity. Meanwhile, the internal mass is mechanically sequestered into the Vidyabhushan Condensate, where its internal microstates simplify (Ω→1), achieving the zero-entropy seed required for the child universe. Upgrading to Dirac Impulse Mechanics: Previously, the theory utilized the algebraic indeterminate forms 0×∞=1 and 0/0=1 as literal proofs of the "Cosmic Snap" and thermodynamic conservation. Because standard mathematics treats these as undefined errors, we have translated this concept entirely into rigorous signal processing and impulse mechanics. We now model the universe's geometric decoupling using a Dirac delta impulse (δ(t)). The integral of this impulse over the entire spatial and temporal domain normalizes to exactly 1, providing a flawless mathematical proof of perfect energy conservation during the catastrophic structural yield of the cosmos. Conclusion By making these slight corrections to our language—shifting to Solitonic Impedance, Holographic Condensation, and Dirac impulse mechanics—the Vidyabhushan-Bounce Model no longer fights the accepted equations of modern physics. Instead, it seamlessly translates them into the language of structural mechanics, offering a deterministic, engineering-based ignition switch for the Hot Big Bang.
Author: Singh, Mukesh Vidyabhushan
Language: English
Subfield: Astronomy and Astrophysics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7148533481