The Stochastic Electrostatic Schwinger-Core Initialisation - an Alternative Cosmological Model

The ‘Stochastic Electrostatic Schwinger-Core Initialisation Model’ (S.E.S.C.I Model), is an alternative Cosmological Model that challenges the current ‘Lambda Cold Dark Matter Model’, replacing abstract components of the L.C.D.M Model with known Astrophysical concepts utilised within Cosmology. Current problems within the L.C.D.M Model, include the lack of definition or cause of many Cosmological components for our Universe, such as the origin of Dark Energy or the cause of Baryogenesis. The S.E.S.C.I Model proposes an alternate initial state for our universe, rather than a formless singularity driven solely by a hypothetical Higgs Scalar Field to expand the Universe, the S.E.S.C.I Model would dictate that the initial state of the Universe had consisted of a Concentric Core-Shell formation sphere composed of Electric Charges in the form of pure Electrical Fields, along with an initial False Vacuum within the sphere, replacing the initial conditions of the L.C.D.M Model to provide plausible explanations for certain components of our Universe. The drivers of Cosmic Inflation within the S.E.S.C.I Model are a Higgs Scalar Field governing an initial False Vacuum, and an Electrostatic Repulsion Force caused due to the initial repulsion of Negative Electrical Charges within the Core-Shell sphere. This alternative Cosmological Model shows promise in resolving the uncertain initial conditions of our Universe through replacing certain components of the L.C.D.M Model with definitive concepts in Cosmology.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-04
DOI
https://doi.org/10.5281/zenodo.22202516
Primary Topic
Cosmology and Gravitation Theories
Type
article
Field-Weighted Citation Impact
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article

The Stochastic Electrostatic Schwinger-Core Initialisation - an Alternative Cosmological Model

Abhimanyu Kaujalgi
Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
article

The Stochastic Electrostatic Schwinger-Core Initialisation - an Alternative Cosmological Model

Abhimanyu Kaujalgi
article en

Abstract

The ‘Stochastic Electrostatic Schwinger-Core Initialisation Model’ (S.E.S.C.I Model), is an alternative Cosmological Model that challenges the current ‘Lambda Cold Dark Matter Model’, replacing abstract components of the L.C.D.M Model with known Astrophysical concepts utilised within Cosmology. Current problems within the L.C.D.M Model, include the lack of definition or cause of many Cosmological components for our Universe, such as the origin of Dark Energy or the cause of Baryogenesis. The S.E.S.C.I Model proposes an alternate initial state for our universe, rather than a formless singularity driven solely by a hypothetical Higgs Scalar Field to expand the Universe, the S.E.S.C.I Model would dictate that the initial state of the Universe had consisted of a Concentric Core-Shell formation sphere composed of Electric Charges in the form of pure Electrical Fields, along with an initial False Vacuum within the sphere, replacing the initial conditions of the L.C.D.M Model to provide plausible explanations for certain components of our Universe. The drivers of Cosmic Inflation within the S.E.S.C.I Model are a Higgs Scalar Field governing an initial False Vacuum, and an Electrostatic Repulsion Force caused due to the initial repulsion of Negative Electrical Charges within the Core-Shell sphere. This alternative Cosmological Model shows promise in resolving the uncertain initial conditions of our Universe through replacing certain components of the L.C.D.M Model with definitive concepts in Cosmology.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 10%
Cosmology and Gravitation Theories
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