Non-Equilibrium Dissipative Colloid Physics: Mechanical Organization of Matter Far from Equilibrium and Its Relics in Modern Oncogenesis

Traditional models of both abiogenesis and oncogenesis rely heavily on informational determination mediated by nucleic acids (DNA/RNA). This paper proposes a new paradigm—Non-Equilibrium Dissipative Colloid Physics—defining the third phase of material evolution on early Earth. We hypothesize that the interaction between complex inorganic chemistry and organic amphiphiles generated hybrid colloidal systems in states of extreme thermodynamic non-equilibrium. Driven exclusively by phase boundaries, surface tension, and osmotic gradients, these systems exhibited autonomous behaviors (pulsation, division, mechanical cannibalism) completely independent of a genetic code. Furthermore, this study demonstrates that when a modern cell experiences a critical bioenergetical deficit and loses genetic regulation (e.g., via p53 inactivation), it does not collapse into random chaos in the bifurcation point. Instead, it transitions into these ancient, physically more stable colloidal attractors.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-09
DOI
https://doi.org/10.5281/zenodo.20613689
Primary Topic
Origins and Evolution of Life
Type
preprint
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preprint

Non-Equilibrium Dissipative Colloid Physics: Mechanical Organization of Matter Far from Equilibrium and Its Relics in Modern Oncogenesis

Peter Mikuláš
Zenodo (CERN European Organization for Nuclear Research)
Origins and Evolution of Life
preprint

Non-Equilibrium Dissipative Colloid Physics: Mechanical Organization of Matter Far from Equilibrium and Its Relics in Modern Oncogenesis

Peter Mikuláš
preprint en

Abstract

Traditional models of both abiogenesis and oncogenesis rely heavily on informational determination mediated by nucleic acids (DNA/RNA). This paper proposes a new paradigm—Non-Equilibrium Dissipative Colloid Physics—defining the third phase of material evolution on early Earth. We hypothesize that the interaction between complex inorganic chemistry and organic amphiphiles generated hybrid colloidal systems in states of extreme thermodynamic non-equilibrium. Driven exclusively by phase boundaries, surface tension, and osmotic gradients, these systems exhibited autonomous behaviors (pulsation, division, mechanical cannibalism) completely independent of a genetic code. Furthermore, this study demonstrates that when a modern cell experiences a critical bioenergetical deficit and loses genetic regulation (e.g., via p53 inactivation), it does not collapse into random chaos in the bifurcation point. Instead, it transitions into these ancient, physically more stable colloidal attractors.

Zenodo (CERN European Organization for Nuclear Research)
Origins and Evolution of Life
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