An Alternative Manifold for Cosmology Using Seifert Fibered and Hyperbolic Spaces

Maria E. Mejía, Reinaldo R. Rosa

Departamento de Matemáticas, Universidad de Guadalajara, Guadalajara, México.
Laboratório Associado de Computa??o e Matemática Aplicada, Instituto Nacional de Pesquisas Espaciais, S?o José dos Campos, Brasil.

DOI: 10.4236/am.2014.56096                

Abstract

We propose a model with 3-dimensional spatial sections, constructed from hyperbolic cusp space glued to Seifert manifolds which are in this case homology spheres. The topological part of this research is based on Thurston’s conjecture which states that any 3-dimensional manifold has a canonical decomposition into parts, each of which has a particular geometric structure. In our case, each part is either a Seifert fibered or a cusp hyperbolic space. In our construction we remove tubular neighbourhoods of singular orbits in areas of Seifert fibered manifolds using a splice operation and replace each with a cusp hyperbolic space. We thus achieve elimination of all singularities, which appear in the standard-like cosmological models, replacing them by “a torus to infinity”. From this construction, we propose an alternative manifold for cosmology with finite volume and without Friedmann-like singularities. This manifold was used for calculating coupling constants. Obtaining in this way a theoretical explanation for fundamental forces is at least in the sense of the hierarchy.

Keywords

Topology, Cosmology, Thurston’s Theory, Singularity-Free

Conflicts of Interest

The authors declare no conflicts of interest.

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