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| Format: | Recurso digital |
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Zenodo
2026
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| Online Access: | https://doi.org/10.5281/zenodo.20028055 |
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Table of Contents:
- <p>The July 1994 collision of Comet Shoemaker-Levy 9 with Jupiter remains one of the most<br>instructive natural experiments ever observed in planetary science because the event<br>separated, in time and environment, two mechanisms that are usually blended together in<br>impact phenomena. During its close 1992 encounter with Jupiter, the progenitor comet<br>was disrupted in vacuum after passing within Jupiter's Roche-limit region, producing the<br>now-famous linear “string of pearls” fragment train. Two years later, those fragments<br>entered Jupiter's dense atmosphere at extreme velocity, generating plumes, thermal<br>emission, plasma formation, and long-lived dark scars. Standard astrophysics describes<br>the first phase as tidal disruption and the second as atmospheric impact physics. The<br>Space-Phase (SP3) framework preserves those observational descriptions but interprets<br>them as two expressions of a single conditionable substrate: first, gradient-induced<br>coherence failure in vacuum, and second, saturation-driven collapse and final<br>decoherence in a dense medium. This paper presents Shoemaker-Levy 9 as a benchmark<br>SP3 case because the event cleanly distinguishes breakup without atmospheric mediation,<br>as separated from later energy loading, saturation, plume formation, relaxation, and<br>memory imprinting within Jupiter's atmosphere. The sequence allows the principal SP3<br>functions--conditionability, pressure-gradient action, coherence failure,<br>reconfiguration granularity, memory, energy storage, saturation, final decoherence,<br>relaxation, and guidance/taxation asymmetry--to be mapped to specific observables.<br>Shoemaker-Levy 9 is therefore not merely an historic impact event; it is a rare ordered<br>demonstration of how coherent matter responds to a structured medium across both<br>vacuum and atmospheric regimes.</p>