The Mathematical Principles of Causal Compression: A Derivation of the Particle Mass Spectrum from ICCF First Principles

This appendix presents a detailed blueprint of the "Genesis" project, which aims to convert the particle mass spectrum generation function from a theoretical formula into a particle mass calculator that outputs real, measurable numbers starting from first principles. The process begins by anchoring the universe’s fundamental constants using the electron's mass as an anchor point. Following this, the mass of the proton is computed, and the ICCF theory’s predictive power is tested. The proton’s mass is derived from first principles, using the established relationship between topological energy, causal string energy, and saturation binding energy. The result validates the ICCF framework, showing that particle mass predictions are deeply intertwined with causal compression and topological structures. This serves as a pivotal step toward demonstrating the ICCF theory’s practical applicability in understanding fundamental particles.

Publication Details

Journal
Open Science Framework
Published
2025-01-01
DOI
https://doi.org/10.17605/osf.io/ra962
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
0.00
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article

The Mathematical Principles of Causal Compression: A Derivation of the Particle Mass Spectrum from ICCF First Principles

Open Science Framework
Geochemistry and Geologic Mapping
article

The Mathematical Principles of Causal Compression: A Derivation of the Particle Mass Spectrum from ICCF First Principles

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Abstract

This appendix presents a detailed blueprint of the "Genesis" project, which aims to convert the particle mass spectrum generation function from a theoretical formula into a particle mass calculator that outputs real, measurable numbers starting from first principles. The process begins by anchoring the universe’s fundamental constants using the electron's mass as an anchor point. Following this, the mass of the proton is computed, and the ICCF theory’s predictive power is tested. The proton’s mass is derived from first principles, using the established relationship between topological energy, causal string energy, and saturation binding energy. The result validates the ICCF framework, showing that particle mass predictions are deeply intertwined with causal compression and topological structures. This serves as a pivotal step toward demonstrating the ICCF theory’s practical applicability in understanding fundamental particles.

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