The function $\pi(x)$, defined as the ratio between circumference and diameter on a spatial slice of curvature $R(x)$, decreases in positively curved regions and increases in negatively curved ones. Locally, every observer measures a constant $\pi_0$ within their tangent space, but globally $\pi(x)$ encodes the curvature of spacetime. This illustrates how geometric constancy is an artifact of local flatness under the Universal Internal Coherence principle.
Figure 2. Causal coherence $c(x)$ across spacetime curvature.
The local causal speed $c(x)$, interpreted as the limit of light propagation along null geodesics, varies inversely with curvature. Where space bends ($R>0$), causal coherence increases to maintain global invariance. The inverse relationship between $\pi(x)$ and $c(x)$ ensures that their product $\pi(x)c(x)$ remains constant, preserving coherence between geometry and causality.
Figure 3. Big Bang–Black Hole duality under Universal Internal Coherence.
Both cosmological and gravitational singularities correspond to extremal coherence states. At the Big Bang, spatial geometry vanishes ($\pi \to 0$) and causal connectivity diverges ($c \to \infty$). At a black hole horizon, the same limit occurs locally. The constancy of $\pi c$ across these regimes reveals a hidden symmetry: creation and collapse are dual manifestations of the same coherent structure of spacetime.



No comments:
Post a Comment