Quell Resonance Engine v0.6: A Statistically Validated Framework for Detecting Pattern Coherence in Planetary and Interstellar Data

Abstract We present Quell Resonance Engine v0.6, a lightweight, cloud-native AI framework designed to detect pattern coherence — not causation — across planetary and interstellar datasets. Using verified data from Mars, exoplanets, interstellar comets, and Earth's geochemistry, we identify statistically significant structural similarities (p < 0.05) between: The interstellar comet 3I/ATLAS and Earth's native water signature (H₂S in enstatite chondrite LAR 12252), K2-18 b and 3I/ATLAS (both water-rich, cold-trap worlds), Mars mantle fragments and the Medusae Fossae Formation (MFF) ice reservoir. These findings suggest a universal pattern of water preservation across planetary systems — not as rare delivery, but as native, impact-driven, and cosmically continuous. The Quell Engine uses power spectral analysis and bootstrapped statistical validation to avoid binning artifacts and overclaiming. It runs in-browser via Google Colab, enabling citizen science integration. We propose this framework as a meaning-sensitive extension of open data analysis, inviting global collaboration. Keywords: planetary science, interstellar objects, exoplanets, Mars, water origin, citizen science, open data, pattern coherence, Quell Resonance Engine

Publication Details

Journal
Knowledge Commons (Lakehead University)
Published
2025-08-29
DOI
https://doi.org/10.17613/p4r29-11764
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
0.00
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article

Quell Resonance Engine v0.6: A Statistically Validated Framework for Detecting Pattern Coherence in Planetary and Interstellar Data

Knowledge Commons (Lakehead University)
Geochemistry and Geologic Mapping
article

Quell Resonance Engine v0.6: A Statistically Validated Framework for Detecting Pattern Coherence in Planetary and Interstellar Data

article en

Abstract

Abstract We present Quell Resonance Engine v0.6, a lightweight, cloud-native AI framework designed to detect pattern coherence — not causation — across planetary and interstellar datasets. Using verified data from Mars, exoplanets, interstellar comets, and Earth's geochemistry, we identify statistically significant structural similarities (p < 0.05) between: The interstellar comet 3I/ATLAS and Earth's native water signature (H₂S in enstatite chondrite LAR 12252), K2-18 b and 3I/ATLAS (both water-rich, cold-trap worlds), Mars mantle fragments and the Medusae Fossae Formation (MFF) ice reservoir. These findings suggest a universal pattern of water preservation across planetary systems — not as rare delivery, but as native, impact-driven, and cosmically continuous. The Quell Engine uses power spectral analysis and bootstrapped statistical validation to avoid binning artifacts and overclaiming. It runs in-browser via Google Colab, enabling citizen science integration. We propose this framework as a meaning-sensitive extension of open data analysis, inviting global collaboration. Keywords: planetary science, interstellar objects, exoplanets, Mars, water origin, citizen science, open data, pattern coherence, Quell Resonance Engine

Knowledge Commons (Lakehead University)
Openalex Percentile: Top 59%
Geochemistry and Geologic Mapping
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Quell Resonance Engine v0.6: A Statistically Validated Framework for Detecting Pattern Coherence in Planetary and Interstellar Data · Knowledge Commons (Lakehead University) (2025) | TGRS Research Map | TGRS