Wormholes in Rotational Gravity Corridors: A Hypothesis Based on Jovian Resonance Zones

Nathan Mills proposes that natural wormholes may form in regions of extreme gravitational interaction, specifically, between dense, rotating celestial bodies locked in orbital resonance. Drawing on analogies from oceanic gyres and maelstroms, the framework suggests that such “gravitational maelstroms” act like cosmic vortices, stretching spacetime to the point of topological instability. The Jupiter–Io–Europa system is highlighted as a prime candidate, where tidal forces, angular momentum, and dark matter dynamics may converge to create transient, naturally occurring wormholes. The proposal further introduces the concept of prevailing dark matter currents, akin to ocean currents, as a potential navigational map for identifying high-stress spacetime corridors. Key observational indicators include gravitational lensing anomalies, photonic deviations, and measurable distortions in light behavior. These can be mathematically modeled using general relativity to infer the presence of wormhole-like structures or concentrated gravitational stress.