Abstract

The algebraic as well as geometric topological constructions of manifold embeddings and homotopy offer interesting insights about spaces and symmetry. This paper proposes the construction of 2-quasinormed variants of locally dense p-normed 2-spheres within a non-uniformly scalable quasinormed topological (C, R) space. The fibered space is dense and the 2-spheres are equivalent to the category of 3-dimensional manifolds or three-manifolds with simply connected boundary surfaces. However, the disjoint and proper embeddings of covering three-manifolds within the convex subspaces generates separations of p-normed 2-spheres. The 2-quasinormed variants of p-normed 2-spheres are compact and path-connected varieties within the dense space. The path-connection is further extended by introducing the concept of bi-connectedness, preserving Urysohn separation of closed subspaces. The local fundamental groups are constructed from the discrete variety of path-homotopies, which are interior to the respective 2-spheres. The simple connected boundaries of p-normed 2-spheres generate finite and countable sets of homotopy contacts of the fundamental groups. Interestingly, a compact fibre can prepare a homotopy loop in the fundamental group within the fibered topological (C, R) space. It is shown that the holomorphic condition is a requirement in the topological (C, R) space to preserve a convex path-component. However, the topological projections of p-normed 2-spheres on the disjoint holomorphic complex subspaces retain the path-connection property irrespective of the projective points on real subspace. The local fundamental groups of discrete-loop variety support the formation of a homotopically Hausdorff (C, R) space.

Highlights

  • A path-connected topological space is considered to be locally path-connected within a path-component maintaining the equivalence relation

  • A q-quasinormed topological space can admit a corresponding topology generated by the respective p-norm function

  • The proposed constructions of 2-quasinormed variety of locally dense p-normed 2-spheres within a non-uniformly scalable quasinormed topological (C, R) space enable the formulation of path-connected fundamental groups interior to it

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Summary

Introduction

A path-connected topological space is considered to be locally path-connected within a path-component maintaining the equivalence relation. A first countable path-connected topological space admits countable fundamental groups if the space is a homotopically Hausdorff variety [1]. In a one-dimensional topological space X the fundamental group π(X) becomes a free group if the space is a connected type [1] In this case the topological space successfully admits a suitable metric structure. This paper proposes the topological construction and analysis of 2-quasinormed variants of p-normed 2-spheres, path-connected fundamental groups and associated homotopy contacts in a fibered as well as quasinormed topological (C, R) space [3]. The space is non-uniformly scalable and the fundamental groups are interior to dense subspaces of 2-quasinormed variant of p-normed 2-spheres generating a set of homotopy contacts. The surfaces of three-manifolds and 2-spheres are often alternatively named as respective boundaries for the simplicity of presentation

Contact Structures and Fundamental Groups
Homotopy and Twisting
Motivation and Contributions
Preliminary Concepts
Fundamental Groups and Homotopy Contacts
Topologically Bi-Connected Subspaces
Discrete-Loop Homotopy Class
Local Fundamental Group
Homotopy Contacts
Conclusions
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