A non-linear irreversible thermodynamic perspective on organic pigment proliferation and biological evolution
Karo Michaelian

TL;DR
This paper presents a thermodynamic perspective on biological evolution, emphasizing how organic pigments proliferate to dissipate solar energy efficiently, thereby increasing Earth's entropy and supporting life and the hydrological cycle.
Contribution
It introduces a non-linear irreversible thermodynamic framework explaining organic pigment proliferation as a natural consequence of maximizing solar energy dissipation.
Findings
Organic pigments catalyze solar photon dissipation.
Proliferation of pigments enhances Earth's entropy production.
Most photon energy is dissipated as heat, supporting the hydrological cycle.
Abstract
The most important thermodynamic work performed by life today is the dissipation of the solar photon flux into heat through organic pigments in water. From this thermodynamic perspective, biological evolution is thus just the dispersal of organic pigments and water throughout Earth's surface, while adjusting the gases of Earth's atmosphere to allow the most intense part of the solar spectrum to penetrate the atmosphere and reach the surface to be intercepted by these pigments. The covalent bonding of atoms in organic pigments provides excited levels compatible with the energies of these photons. Internal conversion through vibrational relaxation to the ground state of these excited molecules when in water leads to rapid dissipation of the solar photons into heat, and this is the major source of entropy production on Earth. A non-linear irreversible thermodynamic analysis shows that the…
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