Origin of the A+M[S] Model: Core Lattice Collapse and the Emergence of Spacetime

This section introduces the Core Lattice Unit (CLU), a sub-Planckian time scale enabling precision modeling of quantum-causal behavior during spacetime formation. CLU time, defined as 10^{-40} \times t_P, allows us to bypass classical singularities and replace them with structured evolution. Using four redshift-scaled equations for time, entropy, curvature, and wavefunction amplitude, the CLU framework bridges quantum and classical cosmology. These equations describe how spacetime geometry stabilizes from entangled fluctuations and how quantum information decays with redshift.Expanded Elements Note (*)Several files included in this section contain forward-looking components that extend beyond the strict mathematical framework of CLU scaling. These files are marked as foundational scaffolds for later parts of the A+M[S] model and include:• Electromagnetic Harmonic Structurese_and_1_137_Breakdown_in_CLU_Fractions.csvUsed in the quantum field interaction layer of A+M[S] to demonstrate resonance-based coherence.• Mass-Energy Evolution ComparisonsComparison_of__M__with_CLU_Math.csvFeeds directly into the reformulation of the mass-energy tensor in the A+M[S] field structure.• Redshift-Tiered Causal LayeringCLU-Based_Redshift_Cheat_Sheet.csvForms the scaffolding for CLU Cosmology’s time-lattice evolution in Section 3.These files will be explicitly referenced in Sections 3, 4, and 6, but are included here for continuity and traceability.For full reproducibility and citation, the following supporting materials are provided alongside this section. These files include core datasets, figures, and citation formats used in the A+M[S] model.<br>Supporting Materials Included:• CLC_Supporting_Equations_and_Datasets.zipContains all numerical and theoretical datasets used in Section 2, bundled for ease of access.• CLC_Supporting_Equations_README.txtDescribes each dataset, its function, and how it ties into the CLC collapse model.• CLC_Section2_CoverPage.pdfFormal cover page with title, author, and abstract summary for circulation.• CLC_Section2_Preview_Figure.pngIllustration of lattice collapse and curvature node emergence; used as the visual abstract.• CLC_Section2_Citation.bibBibTeX citation file for use with LaTeX, Mendeley, Zotero, and EndNote.CLC_Supporting_Equations_and_Datasets.zip• CLC_Supporting_Equations_README.txt• CLC_Section2_Citation.bib• CLC_Section2_CoverPage.pdf• CLC_Section2_Preview_Figure.pngCLC_Preview.png<br><br><br>

Publication Details

Journal
OPAL (Open@LaTrobe) (La Trobe University)
Published
2025-01-01
DOI
https://doi.org/10.6084/m9.figshare.28682177.v1
Primary Topic
Cosmology and Gravitation Theories
Type
article
Field-Weighted Citation Impact
0.00
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article

Origin of the A+M[S] Model: Core Lattice Collapse and the Emergence of Spacetime

OPAL (Open@LaTrobe) (La Trobe University)
Cosmology and Gravitation Theories
article

Origin of the A+M[S] Model: Core Lattice Collapse and the Emergence of Spacetime

article en

Abstract

This section introduces the Core Lattice Unit (CLU), a sub-Planckian time scale enabling precision modeling of quantum-causal behavior during spacetime formation. CLU time, defined as 10^{-40} \times t_P, allows us to bypass classical singularities and replace them with structured evolution. Using four redshift-scaled equations for time, entropy, curvature, and wavefunction amplitude, the CLU framework bridges quantum and classical cosmology. These equations describe how spacetime geometry stabilizes from entangled fluctuations and how quantum information decays with redshift.Expanded Elements Note (*)Several files included in this section contain forward-looking components that extend beyond the strict mathematical framework of CLU scaling. These files are marked as foundational scaffolds for later parts of the A+M[S] model and include:• Electromagnetic Harmonic Structurese_and_1_137_Breakdown_in_CLU_Fractions.csvUsed in the quantum field interaction layer of A+M[S] to demonstrate resonance-based coherence.• Mass-Energy Evolution ComparisonsComparison_of__M__with_CLU_Math.csvFeeds directly into the reformulation of the mass-energy tensor in the A+M[S] field structure.• Redshift-Tiered Causal LayeringCLU-Based_Redshift_Cheat_Sheet.csvForms the scaffolding for CLU Cosmology’s time-lattice evolution in Section 3.These files will be explicitly referenced in Sections 3, 4, and 6, but are included here for continuity and traceability.For full reproducibility and citation, the following supporting materials are provided alongside this section. These files include core datasets, figures, and citation formats used in the A+M[S] model.<br>Supporting Materials Included:• CLC_Supporting_Equations_and_Datasets.zipContains all numerical and theoretical datasets used in Section 2, bundled for ease of access.• CLC_Supporting_Equations_README.txtDescribes each dataset, its function, and how it ties into the CLC collapse model.• CLC_Section2_CoverPage.pdfFormal cover page with title, author, and abstract summary for circulation.• CLC_Section2_Preview_Figure.pngIllustration of lattice collapse and curvature node emergence; used as the visual abstract.• CLC_Section2_Citation.bibBibTeX citation file for use with LaTeX, Mendeley, Zotero, and EndNote.CLC_Supporting_Equations_and_Datasets.zip• CLC_Supporting_Equations_README.txt• CLC_Section2_Citation.bib• CLC_Section2_CoverPage.pdf• CLC_Section2_Preview_Figure.pngCLC_Preview.png<br><br><br>

OPAL (Open@LaTrobe) (La Trobe University)
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Cosmology and Gravitation Theories
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