MID/QC Cosmology Series 4: A MID/QC Interpretation of Pluto's Geothermal Anomalies and Cryovolcanic Activity

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Main Author: Rasque, Chadwick
Format: Recurso digital
Language:English
Published: Zenodo 2026
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author Rasque, Chadwick
author_facet Rasque, Chadwick
contents <p><span>Pluto exhibits active geology, convection, cryovolcanism, and possible subsurface ocean retention despite its small size, low radiogenic inventory, and extreme distance from the Sun. Classical models attribute Pluto’s internal heat to radiogenic decay and ancient tidal heating from early orbital evolution with Charon, but these mechanisms cannot fully account for present‑day activity observed by New Horizons. This paper applies the MID/QC framework to reinterpret Pluto’s thermal and geological anomalies as expressions of coherence‑well stabilization, substrate‑level heat retention, and boundary‑mode dynamics within the Pluto–Charon binary. The result is a unified explanation for Pluto’s unexpectedly warm interior, active resurfacing, and cryovolcanic signatures without requiring ongoing tidal forcing or exotic heat sources.</span></p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_18487607
institution Zenodo
language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle MID/QC Cosmology Series 4: A MID/QC Interpretation of Pluto's Geothermal Anomalies and Cryovolcanic Activity
Rasque, Chadwick
MID/QC
Applied Substrate Series
Pluto
Charon
binary coherence well
cryovolcanism
subsurface ocean
Sputnik Planitia
boundary mode
tension geometry
polarity gradients
thermal retention
episodic eruption
convection
resurfacing
tidal heating
radiogenic heating
heat budget anomaly
coherence stabilization
outer solar system
Planetary Science
Geophysics
Astrophysics
Theoretical Physics
Cryovolcanism
Scientific Architecture
<p><span>Pluto exhibits active geology, convection, cryovolcanism, and possible subsurface ocean retention despite its small size, low radiogenic inventory, and extreme distance from the Sun. Classical models attribute Pluto’s internal heat to radiogenic decay and ancient tidal heating from early orbital evolution with Charon, but these mechanisms cannot fully account for present‑day activity observed by New Horizons. This paper applies the MID/QC framework to reinterpret Pluto’s thermal and geological anomalies as expressions of coherence‑well stabilization, substrate‑level heat retention, and boundary‑mode dynamics within the Pluto–Charon binary. The result is a unified explanation for Pluto’s unexpectedly warm interior, active resurfacing, and cryovolcanic signatures without requiring ongoing tidal forcing or exotic heat sources.</span></p>
title MID/QC Cosmology Series 4: A MID/QC Interpretation of Pluto's Geothermal Anomalies and Cryovolcanic Activity
topic MID/QC
Applied Substrate Series
Pluto
Charon
binary coherence well
cryovolcanism
subsurface ocean
Sputnik Planitia
boundary mode
tension geometry
polarity gradients
thermal retention
episodic eruption
convection
resurfacing
tidal heating
radiogenic heating
heat budget anomaly
coherence stabilization
outer solar system
Planetary Science
Geophysics
Astrophysics
Theoretical Physics
Cryovolcanism
Scientific Architecture
url https://doi.org/10.5281/zenodo.18487607