PUH Theorem 371 — If a Jupiter Falls Into the Sun, Its Planck Core Does Not Merge at Once: Slowed by Its Own Gravitational Wake, It Loops for Weeks to Centuries, Orbits the Sun's Core and Spirals In

Photonic Universe Hypothesis (PUH) — Worked Scenario. THE QUESTION (the author, 25 September 2026): if a Jupiter-size body slammed into the Sun, would its Planck cores and the Sun's orbit each other for a time before merging, or merge at once — given that, to a core, the Sun's gas is like smoke? MODEL. The Sun as an n = 3 polytrope with its own core (1.6 × 10²⁷ kg, T291) at the centre. The incoming core's mass is open (T241, T341.3), so two cases: light, 1.6 × 10²⁴ kg (Earth's core fraction applied to Jupiter), and heavy, 1.6 × 10²⁷ kg (seed scale; 84 per cent of Jupiter's mass, so unlikely for a real Jupiter). Contact drag and gravitational drag (Ostriker 1999); gravitational waves (Peters 1964) for the last stage; a head-on plunge averaged pass by pass; falls from Jupiter's distance or from far away; every stage repeated with the drag three times weaker. RESULT 371.1. The planet hits at 617 km/s (3.6 × 10³⁸ J, about 30,000 years of sunlight), is inside its tidal break-up distance (1.29 solar radii) before it reaches the surface, and sweeps up its own mass of gas by 0.48 of the Sun's radius: it is torn apart and mixed in. Its core, permanent (T206), carries on. RESULT 371.2. Smoke to the touch, held by gravity: contact drag would take 25 million (heavy) to 25 billion (light) years to stop the core, but its gravity gathers a wake that pulls back about 10¹⁰ times harder (reach 127 km / 127 m). Heavier cores slow faster, as T318 found. RESULT 371.3. A first-pass hit on the Sun's core needs aim within about 1 km of the centre, so the core misses and loops back through the Sun again and again: light, about 8,800 passes over 71 years (from Jupiter's distance) to 295 years (from far away), then 7 years settling; heavy, 18 passes in about a week, then under 3 days. Near the centre every small orbit takes about 23 minutes. RESULT 371.4. The cores DO orbit each other before they merge: the pair forms within 17,154 km (light) or 21,642 km (heavy) and spirals in over 5.2 years or 9 days; gravitational waves take over inside about 4 or 10 km and finish the last kilometre in 11 hours or 19 seconds. Whole journey: about 84 years (light, from Jupiter's distance; 308 from far away) or 19 days (heavy); with the drag three times weaker, three to five times longer. A heavy core passing 1,000 km from the Sun's core kicks it to 164 km/s. RESULT 371.5. Heat deposited: light, about 0.1 per cent of the thermal energy of the Sun's inner tenth; heavy, about 44 per cent within three weeks. The gas a core holds around itself is under 0.2 per cent of its mass (T210: the Shell cannot take it in quickly). RESULT 371.6. The merger itself is T309's fork: topological (instantaneous) or throughput-limited (smallest slowest, about two years at Earth mass). T371 supplies the approach. RESULT 371.7 (for T161). The same drag sinks cores orbiting inside Jupiter: from 3,500 km to the centre in 0.3 years (1.6 × 10²⁴ kg), 49 years (10²² kg), 4,900 years (10²⁰ kg), 4.9 billion years (10¹⁴ kg). Cores still orbiting must be lighter than about 10¹⁴ kg or recent arrivals. In an n = 1 Jupiter the period is 1.58 hours near the centre, not 2.87 (the surface value). KILL-CONDITIONS: a detailed simulation finding the gravitational drag far weaker; a core–matter coupling the archive has not described that rivals the wake; a long-lived heavy orbiting core inside Jupiter. NOT CLAIMED: that Jupiter will fall into the Sun; Jupiter's core mass; the Sun's destruction; what happens at contact (T309). OPEN: glancing entries (slower); the Sun's response to the heavy case; whether a core below 10¹⁴ kg can drive T161's radio signal.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-30
DOI
https://doi.org/10.5281/zenodo.23050227
Primary Topic
Earth Systems and Cosmic Evolution
Type
preprint
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PUH Theorem 371 — If a Jupiter Falls Into the Sun, Its Planck Core Does Not Merge at Once: Slowed by Its Own Gravitational Wake, It Loops for Weeks to Centuries, Orbits the Sun's Core and Spirals In

Brian Martell
Zenodo (CERN European Organization for Nuclear Research)
Earth Systems and Cosmic Evolution
preprint

PUH Theorem 371 — If a Jupiter Falls Into the Sun, Its Planck Core Does Not Merge at Once: Slowed by Its Own Gravitational Wake, It Loops for Weeks to Centuries, Orbits the Sun's Core and Spirals In

Brian Martell
preprint en

Abstract

Photonic Universe Hypothesis (PUH) — Worked Scenario. THE QUESTION (the author, 25 September 2026): if a Jupiter-size body slammed into the Sun, would its Planck cores and the Sun's orbit each other for a time before merging, or merge at once — given that, to a core, the Sun's gas is like smoke? MODEL. The Sun as an n = 3 polytrope with its own core (1.6 × 10²⁷ kg, T291) at the centre. The incoming core's mass is open (T241, T341.3), so two cases: light, 1.6 × 10²⁴ kg (Earth's core fraction applied to Jupiter), and heavy, 1.6 × 10²⁷ kg (seed scale; 84 per cent of Jupiter's mass, so unlikely for a real Jupiter). Contact drag and gravitational drag (Ostriker 1999); gravitational waves (Peters 1964) for the last stage; a head-on plunge averaged pass by pass; falls from Jupiter's distance or from far away; every stage repeated with the drag three times weaker. RESULT 371.1. The planet hits at 617 km/s (3.6 × 10³⁸ J, about 30,000 years of sunlight), is inside its tidal break-up distance (1.29 solar radii) before it reaches the surface, and sweeps up its own mass of gas by 0.48 of the Sun's radius: it is torn apart and mixed in. Its core, permanent (T206), carries on. RESULT 371.2. Smoke to the touch, held by gravity: contact drag would take 25 million (heavy) to 25 billion (light) years to stop the core, but its gravity gathers a wake that pulls back about 10¹⁰ times harder (reach 127 km / 127 m). Heavier cores slow faster, as T318 found. RESULT 371.3. A first-pass hit on the Sun's core needs aim within about 1 km of the centre, so the core misses and loops back through the Sun again and again: light, about 8,800 passes over 71 years (from Jupiter's distance) to 295 years (from far away), then 7 years settling; heavy, 18 passes in about a week, then under 3 days. Near the centre every small orbit takes about 23 minutes. RESULT 371.4. The cores DO orbit each other before they merge: the pair forms within 17,154 km (light) or 21,642 km (heavy) and spirals in over 5.2 years or 9 days; gravitational waves take over inside about 4 or 10 km and finish the last kilometre in 11 hours or 19 seconds. Whole journey: about 84 years (light, from Jupiter's distance; 308 from far away) or 19 days (heavy); with the drag three times weaker, three to five times longer. A heavy core passing 1,000 km from the Sun's core kicks it to 164 km/s. RESULT 371.5. Heat deposited: light, about 0.1 per cent of the thermal energy of the Sun's inner tenth; heavy, about 44 per cent within three weeks. The gas a core holds around itself is under 0.2 per cent of its mass (T210: the Shell cannot take it in quickly). RESULT 371.6. The merger itself is T309's fork: topological (instantaneous) or throughput-limited (smallest slowest, about two years at Earth mass). T371 supplies the approach. RESULT 371.7 (for T161). The same drag sinks cores orbiting inside Jupiter: from 3,500 km to the centre in 0.3 years (1.6 × 10²⁴ kg), 49 years (10²² kg), 4,900 years (10²⁰ kg), 4.9 billion years (10¹⁴ kg). Cores still orbiting must be lighter than about 10¹⁴ kg or recent arrivals. In an n = 1 Jupiter the period is 1.58 hours near the centre, not 2.87 (the surface value). KILL-CONDITIONS: a detailed simulation finding the gravitational drag far weaker; a core–matter coupling the archive has not described that rivals the wake; a long-lived heavy orbiting core inside Jupiter. NOT CLAIMED: that Jupiter will fall into the Sun; Jupiter's core mass; the Sun's destruction; what happens at contact (T309). OPEN: glancing entries (slower); the Sun's response to the heavy case; whether a core below 10¹⁴ kg can drive T161's radio signal.

Zenodo (CERN European Organization for Nuclear Research)
Earth Systems and Cosmic Evolution
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