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author SASSI, Harold
author_facet SASSI, Harold
contents <p>This paper develops the hypothesis that the fundamental constants and symmetry structures governing physics<br>are not arbitrary fixed parameters, but the result of a selection process operating across successive cosmological<br>cycles.</p> <p>The proposed mechanism localises hereditary variation in the quantum decoherence occurring during<br>spontaneous symmetry breaking in the primordial universe.</p> <p>The theory produces a hierarchical testable prediction : the robustness of fundamental constants should be positively correlated with the chronological age of the symmetry-breaking event that fixed them. This prediction is confronted with existing data on the strong coupling constant, the cosmological constant, and measurements of fine-structure constant variation in distant<br>quasar spectra. The epistemological limits of the hypothesis are explicitly formulated.</p>
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language eng
publishDate 2026
publisher Zenodo
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spellingShingle Towards a Theory of Physical Law Selection
SASSI, Harold
Fundamental constants
Selection of physical laws
Evolution of constants
Hierarchical robustness of constants
Fine-tuning problem
Cosmological natural selection
Symmetry breaking
Quantum decoherence
Evolution of physical laws
Anthropic principle (comparison context)
Parameter space dynamics
Symmetry-breaking-induced variation
Quantum field theory
Grand Unified Theories (GUT)
Stochastic processes
Mutation-selection models
Probability distributions
Cosmological cycles
Quantum fluctuations of constants
Multiverse (comparison context)
Markov processes
High redshift observations
Cosmic microwave background
Quasar absorption spectra
Variation of fundamental constants
Philosophy of physics
Metaphysics of laws
Nomological realism
Laws of nature
Epistemology of cosmology
Naturalized metaphysics
Nominalism
Lee Smolin cosmological natural selection
Emergent laws
Theoretical cosmology
Foundations of physics
<p>This paper develops the hypothesis that the fundamental constants and symmetry structures governing physics<br>are not arbitrary fixed parameters, but the result of a selection process operating across successive cosmological<br>cycles.</p> <p>The proposed mechanism localises hereditary variation in the quantum decoherence occurring during<br>spontaneous symmetry breaking in the primordial universe.</p> <p>The theory produces a hierarchical testable prediction : the robustness of fundamental constants should be positively correlated with the chronological age of the symmetry-breaking event that fixed them. This prediction is confronted with existing data on the strong coupling constant, the cosmological constant, and measurements of fine-structure constant variation in distant<br>quasar spectra. The epistemological limits of the hypothesis are explicitly formulated.</p>
title Towards a Theory of Physical Law Selection
topic Fundamental constants
Selection of physical laws
Evolution of constants
Hierarchical robustness of constants
Fine-tuning problem
Cosmological natural selection
Symmetry breaking
Quantum decoherence
Evolution of physical laws
Anthropic principle (comparison context)
Parameter space dynamics
Symmetry-breaking-induced variation
Quantum field theory
Grand Unified Theories (GUT)
Stochastic processes
Mutation-selection models
Probability distributions
Cosmological cycles
Quantum fluctuations of constants
Multiverse (comparison context)
Markov processes
High redshift observations
Cosmic microwave background
Quasar absorption spectra
Variation of fundamental constants
Philosophy of physics
Metaphysics of laws
Nomological realism
Laws of nature
Epistemology of cosmology
Naturalized metaphysics
Nominalism
Lee Smolin cosmological natural selection
Emergent laws
Theoretical cosmology
Foundations of physics
url https://doi.org/10.5281/zenodo.19765242