Photosynthesis as Clean Bond-Unbinding via Δf Damping (msf:47600 v1.0)

This mini-document extends USP Field Theory into the biological domain, reframing photosynthesis as a clean frequency-driven bond-unbinding process. Rather than viewing CO₂ reduction as a conventional electron–proton reaction, the USP interpretation describes leaves as geometric Δf dampers: CO₂ is captured asymmetrically by the leaf’s micro-architecture, sunlight is stepped down into a narrow resonance corridor, and electron-loop alignment weakens targeted bonds. Carbon stabilizes into biochemical pathways while oxygen relaxes outward as a natural symmetry release. The document introduces a quantitative damping expression linking pigment geometry to corridor formation and shows how this mechanism parallels light-to-electricity resonance (msf:45736), biological damping layers (msf:47406), atmospheric CO₂ capture gradients (msf:47233), and diurnal Δf cycling (msf:45740). This work provides a physical, resonance-based interpretation of photosynthesis and highlights deep structural parallels with UV-driven vitamin D formation in human skin.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-11-24
DOI
https://doi.org/10.5281/zenodo.17694889
Primary Topic
Photosynthetic Processes and Mechanisms
Type
article
Field-Weighted Citation Impact
0.00
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article

Photosynthesis as Clean Bond-Unbinding via Δf Damping (msf:47600 v1.0)

Zenodo (CERN European Organization for Nuclear Research)
Photosynthetic Processes and Mechanisms
article

Photosynthesis as Clean Bond-Unbinding via Δf Damping (msf:47600 v1.0)

article en

Abstract

This mini-document extends USP Field Theory into the biological domain, reframing photosynthesis as a clean frequency-driven bond-unbinding process. Rather than viewing CO₂ reduction as a conventional electron–proton reaction, the USP interpretation describes leaves as geometric Δf dampers: CO₂ is captured asymmetrically by the leaf’s micro-architecture, sunlight is stepped down into a narrow resonance corridor, and electron-loop alignment weakens targeted bonds. Carbon stabilizes into biochemical pathways while oxygen relaxes outward as a natural symmetry release. The document introduces a quantitative damping expression linking pigment geometry to corridor formation and shows how this mechanism parallels light-to-electricity resonance (msf:45736), biological damping layers (msf:47406), atmospheric CO₂ capture gradients (msf:47233), and diurnal Δf cycling (msf:45740). This work provides a physical, resonance-based interpretation of photosynthesis and highlights deep structural parallels with UV-driven vitamin D formation in human skin.

Zenodo (CERN European Organization for Nuclear Research)
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Photosynthetic Processes and Mechanisms
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