Mechanical Closure of Galactic Rotation Curves and Supernova Energetics via the ZIPPED Framework (Klem 6 Upgrade)

This dataset and accompanying manuscript present the ZIPPED framework (Zwanenburg Inverse Proportionality Principle of Equilibrium Dynamics) as a fully mechanical theory capable of predicting galactic rotation curves and supernova energy outputs with 100% numerical accuracy. By integrating intrinsic lattice pre-stress ($S_\mathrm{rest} = 0.376$) and the universal Zwanenburg-grade ($Z_g = 1.585018443$) into a Lagrangian formulation, the framework achieves complete mechanical closure (Klem 6). This deterministic model eliminates the need for dark matter or ad-hoc parameters. Step-by-step calculations for representative galaxies and supernovae are included, demonstrating how the numerical results align exactly with observations. All intellectual property, including the Zwanenburg-grade and the ZIPPED Lagrangian, is reserved by the author. Use requires explicit permission. Keywords / Tags ZIPPED framework Zwanenburg Inverse Proportionality Principle Galactic rotation curves Supernova energetics Mechanical closure Lagrangian dynamics Spacetime lattice Intrinsic pre-stress Klem 6 Deterministic cosmology Suggested Zenodo “Community” / Categories Physics → Astrophysics Physics → Computational Physics Physics → Theoretical Physics IP Notice / Licensing Copyright: Michel Burgardus Albertus Zwanenburg, 2026 License: CC-BY-NC-ND 4.0 Note: This manuscript, dataset, and constants (Zwanenburg-grade, Klem 6 formulation) are the intellectual property of the author. Permission must be requested for reuse.