BF systems on graph cobordisms as topological cosmology
Vladimir N. Efremov, Nikolai V. Mitskievich, Alfonso M. Hern\'andez, Magdaleno

TL;DR
This paper develops a topological cosmological model linking universe evolution to graph cobordisms, using BF-type topological field theories to relate invariants to fundamental interaction constants.
Contribution
It introduces a novel topological framework connecting graph cobordisms with cosmological evolution and fundamental constants via BF-models.
Findings
Explicit transition amplitudes for BF-models are derived.
Topological invariants correspond to physical coupling constants.
Eigenvalues of intersection matrices reproduce hierarchy of fundamental interaction constants.
Abstract
A cosmological model connecting the evolution of universe with a sequence of topology changes described by a collection of specific graph cobordisms, is constructed. It is shown that an adequate topological field theory (of BF-type) can be put into relation to each graph cobordism. The explicit expressions for transition amplitudes (partition functions) are written in these BF-models and it is shown that the basic topological invariants of the graph cobordisms (intersection matrices) play the r{\^o}le of coupling constants between the formal analogues of electric and magnetic fluxes quantized {\`a} la Dirac, but with the use of Poicar{\'e}--Lefschetz duality. For a specific graph cobordism, the diagonal elements and eigenvalues of the intersection matrix reproduce the hierarchy of dimensionless low-energy coupling constants of the fundamental interactions acting in the real universe.
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Taxonomy
TopicsHomotopy and Cohomology in Algebraic Topology · Black Holes and Theoretical Physics · Algebraic structures and combinatorial models
