Why Time Appears Slower in the Cosmos — A Field-Based View with a Testable Prediction

This document combines theoretical insight and testable prediction under the USP Field framework. It explains why cosmic events appear to unfold in slow motion and why we predominantly observe luminous stars rather than the full structure of the universe. Time appears stretched not only due to light travel delay, but also due to tension gradients embedded in space. Building on this concept, the document proposes a practical observational test: compare transient cosmic events viewed through the dense plane of the Milky Way against those seen above or below it. The hypothesis predicts that events observed through the galactic disk will appear more time-dilated due to compounded USP Field compression layers — offering a falsifiable way to measure the role of spatial tension in time perception. In this updated version, the theory is expanded through application to a real exoplanet: Proxima b. Using both classical physics and USP Field logic, it calculates the gravitational time dilation at Proxima b’s surface and explores how this contributes to slowed observable time, compounded by the 4.24-year light delay from Earth. This analysis illustrates how USP Field compression influences both local time flow and our perception of distant worlds. Altogether, this version connects theoretical rhythm compression to measurable astrophysical phenomena, reinforcing the USP model’s testability and explanatory power.