AI-Driven Verification of Physics Paradigms

Einstein's theory of relativity predicts experimental results perfectly in terms of numerical agreement. However, none of those experimental results directly verify the actual existence of "spacetime curvature." Rather, we observe empirical data, and that data happens to coincide with the numerical predictions of Einstein's equations. In other words, we do not predict spacetime curvature from the field equations; we theoretically predict a measurable physical phenomenon, and then confirm its alignment with empirical reality.

For instance, the deflection of light around a massive body is the direct consequence of gravitational action inducing a redshift in the light’s frequency and wavenumber. Light propagates across space using its own intrinsic frequency and wavenumber as its metric. When both frequency and wavenumber undergo a proportional shift, the local velocity of light σ/k naturally remains constant. Under this condition of a constant velocity of light, a perfect deflection matching the predicted values is observed—completely independent of any curvature of spacetime.

Similarly, the measurement of gravitational redshift does not verify the warping of time; it predicts and measures the modulation of the frequency itself. The time dilation recorded by atomic clocks is no exception: the combination of gravity and centrifugal forces shifts the intrinsic frequency of the atomic clock, resulting in a recorded discrepancy in time.

Einstein’s relativity is not a prediction of warped spacetime itself. It exists to predict measurable physical phenomena. By shifting our perspective to this empirical reality, a clear path forward emerges for a modern physics currently mired in confusion.