Background: The reconciliation of quantum mechanics with
gravitational theory remains one of the most significant challenges in
contemporary physics. General Relativity and Quantum Field Theory have
separately offered profound insights into the nature of the universe, yet
attempts at unification frequently encounter conceptual and mathematical
obstacles, notably the emergence of singularities and inconsistencies at
extreme energy scales.
Aims: To develop a unified scalar-torsion cosmological
framework—Nudimmud Physics—that resolves quantum gravity and cosmological
singularities, and to validate its predictive capability through explicit
comparison with established cosmological models and observational data.
Methodology: Theoretical and computational comparative study
was conducted at the Department of Theoretical Physics and Computational
Cosmology at GreenTheDream.com, from March 2024 to March 2025. A simplified
unified scalar potential derived from scalar-torsion cosmology, quantum gravity
principles inspired by Loop Quantum Gravity, and scalar moduli stabilisation
mechanisms from String Theory was constructed. Numerical simulations were
conducted to explore cosmological dynamics across bounce scenarios, focusing on
scalar potential behaviours, cosmological growth factors, and observable
parameters such as matter clustering and Hubble expansion rates.
Results: Simulations using the refined unified scalar
potential V (a) = \(\frac{\Phi{eff}}{1+\alpha{a}^2}\) e -\(\beta\)|a|
demonstrated smooth cosmological bounce behavior, effectively resolving the
cosmological singularity at a cosmic scale factor of zero. Predictive results
indicated enhanced matter clustering with a clustering amplitude \(\sigma{_8}\)
= 0.865 and an increased Hubble constant of HO = 70.55kms-1 Mpc-1 compared
to standard cosmological observations (DESI data). The unified framework showed
excellent alignment with both Loop Quantum Gravity and String Theory scalar
moduli stabilisation.
Nudimmud Physics successfully resolves fundamental
cosmological and quantum gravity issues through a simplified, testable unified
scalar-torsion model. It provides robust predictions that can be validated by
contemporary cosmological surveys, potentially advancing the understanding of
the universe dynamics and offering a simplified alternative for scalar field
stabilisation in theoretical cosmology. The broader implications of this study
are manifold. Nudimmud Physics simplifies the complex theoretical landscape
traditionally associated with quantum gravity and cosmological research,
providing an accessible yet powerful model for future investigations.
Author (s) Details
Derrick Covington
United States Department of Veterans Affairs, United States.
Please see the book here:- https://doi.org/10.9734/bpi/nhstc/v1/5400
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