The Phototronic Engine: A Physical Model of Solar-Planetary Energy Recycling and Its Implications for Human Health

This article introduces the phototronic engine model — a term coined here to describe the scale-invariant structural pattern by which spinning charged bodies in the solar system absorb incoming photon flux through their poles, recycle that energy through internal plasma or biochemical dynamics, and emit the processed output equatorially. The claim is structural scale-invariance — the same input/output architecture operating at different scales through different physical mechanisms — not mechanistic identity across scales. The model rests on established photon physics: photons carry momentum, energy, and quantum spin; upon contact with matter, they displace electrons via the photoelectric and Compton mechanisms, releasing ions that generate a secondary electromagnetic field. This ion-mediated charge cascade produces the observed polar-intake/equatorial-emission architecture at scales ranging from the mitochondrion to the galaxy, through mechanisms appropriate to each. The article traces this structural pattern across five scales, examines its historical precedents in Neoplatonic and Islamic optical philosophy, and develops its implications for human health — particularly through the atmospheric electric circuit, the craniospinal charge pathway, and the mitochondrial redox cycle. The heliosphere is reframed as a phototronic bubble that connects all objects in the solar system within a continuously coupled photon-charge network. Testable predictions are identified.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-01
DOI
https://doi.org/10.5281/zenodo.19378528
Primary Topic
Solar and Space Plasma Dynamics
Type
article
Field-Weighted Citation Impact
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article

The Phototronic Engine: A Physical Model of Solar-Planetary Energy Recycling and Its Implications for Human Health

Masen Clark Gaspervic
Zenodo (CERN European Organization for Nuclear Research)
Solar and Space Plasma Dynamics
article

The Phototronic Engine: A Physical Model of Solar-Planetary Energy Recycling and Its Implications for Human Health

Masen Clark Gaspervic
article en

Abstract

This article introduces the phototronic engine model — a term coined here to describe the scale-invariant structural pattern by which spinning charged bodies in the solar system absorb incoming photon flux through their poles, recycle that energy through internal plasma or biochemical dynamics, and emit the processed output equatorially. The claim is structural scale-invariance — the same input/output architecture operating at different scales through different physical mechanisms — not mechanistic identity across scales. The model rests on established photon physics: photons carry momentum, energy, and quantum spin; upon contact with matter, they displace electrons via the photoelectric and Compton mechanisms, releasing ions that generate a secondary electromagnetic field. This ion-mediated charge cascade produces the observed polar-intake/equatorial-emission architecture at scales ranging from the mitochondrion to the galaxy, through mechanisms appropriate to each. The article traces this structural pattern across five scales, examines its historical precedents in Neoplatonic and Islamic optical philosophy, and develops its implications for human health — particularly through the atmospheric electric circuit, the craniospinal charge pathway, and the mitochondrial redox cycle. The heliosphere is reframed as a phototronic bubble that connects all objects in the solar system within a continuously coupled photon-charge network. Testable predictions are identified.

Zenodo (CERN European Organization for Nuclear Research)
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Solar and Space Plasma Dynamics
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