The Zipped Universe: A Spatiotemporal Invariant Potential Theory (SIPT) of Atomic Knots

This manuscript introduces the Spatiotemporal Invariant Potential Theory (SIPT), colloquially known as the "Zipped Universe" framework. SIPT proposes a fundamental reinterpretation of matter and cosmology by treating spacetime not as a passive background, but as an active, elastic fabric capable of geometric storage of energy and information. Key Theoretical Pillars: Atomic Knots: A redefinition of the Periodic Table where elements are modeled as hierarchical spacetime knots. The "Zwanenburg Grade" ($Z_g$) is introduced as the metric for geometric stability, identifying Iron (Fe) as the "Perfect Knot" or the point of maximal energetic efficiency. The Law of Cosmic Unzipping: A universal principle governing the transition from geometric order ($\Omega$) to kinetic disorder ($\Delta$). This law provides a new causal mechanism for entropy, radioactive decay, and galactic rotation curves without the need for dark matter. Geometric Re-integration (The Big Bounce): A non-singular cosmological model where the Big Bang is redefined as a deterministic "snap-back" of the spacetime metric. This phase transition occurs once the universe reaches a state of maximal relaxation, driven by a residual order threshold ($\delta$). SIPT offers a closed, internally causal system that addresses current anomalies in physics through the lens of topology and geometric tension. This work is intended to invite scholarly discussion on a structural alternative to dark matter and singular initial conditions. Keywords: SIPT, Spacetime Topology, Zwanenburg Grade, Big Bounce, Dark Matter Alternative, Atomic Knots, Cosmic Unzipping. This research is the result of independent inquiry into the geometric foundations of spacetime and is presented as a complete, axiomatic framework for peer evaluation.