Three acceptable geometries of space-time are Euclidean, Riemannian, and Lobachevskian. Although Einstein’s general theory of relativity is based on Riemannian geometry of positive curvature, it is still undecided whether it is true in general for both macrocosmic and microcosmic structures and superstructures. In the quantum domain of quantum mechanics and quantum field theories the descriptive effectiveness of Lobachevskian hyperbolic geometry of negative curvature dominates that of Riemannian spherical geometry of positive curvature as exemplified by the Heisenberg uncertainty principle and the Lagrangian energy function, contrasting the Hamiltonian of general relativity. The formers use differentiation while the latter uses integration.
However, it is mathematically possible to embed geometries among each other. For example, one embeds the rational Euclidean geometry within the irrational transcendental geometry whenever a regular polygon of finite number of sides is inscribed within a circle. As the number of sides of the regular polygon approaches infinity and simultaneously each side length approaches zero the measure of its perimeter approaches the measure of the circumference of the circle, which is used to define the value of as the ratio of the circumference over the diameter. Conversely, it is doable to inscribe a circle within a given arbitrary polygon of finite number of sides. Likewise, this implies embedding different forms of geometric structures sharing common points of contact. If these processes of inscribing and circumscribing are carried-out indefinitely then the outcome describes an approach toward geometric infinity.


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