The improbable event of spontaneous cell rejuvenation
Ian von Hegner

TL;DR
This paper explores the theoretical possibility, grounded in statistical mechanics, that aging cells could spontaneously revert to a younger, more ordered state despite the unlikelihood, challenging traditional views on irreversible aging.
Contribution
It applies Boltzmann's statistical mechanics to propose that cell rejuvenation is theoretically possible, even if extremely improbable, offering a new perspective on aging.
Findings
Calculated probability of spontaneous cell rejuvenation: 10^(-202)^(-889)
Demonstrated that second law of thermodynamics does not prohibit cellular rejuvenation
Suggests potential for future research into biological reversal of aging
Abstract
Unlike most other laws of nature, the second law of thermodynamics is of a statistical nature, according to Boltzmann, meaning that its reliability arises from the vast number of particles present in macroscopic systems. This means that such systems will lead towards their most likely state, that is, the one with the most homogeneous probability distribution. However, Boltzmann states that entropy-decreasing processes can occur (without doing any work) - it is just very improbable. It is therefore not impossible, in principle, for all 6 x 10^23 atoms in a mole of a gas to spontaneously move to one half of a container; it is only fantastically unlikely. A similar idea has here been applied to a human cell. All somatic cells seem to age and deteriorate in unfavorable conditions. If the ageing process is defined as the accumulation of dysfunctional polymers resulting from, among other…
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Taxonomy
TopicsAdvanced Thermodynamics and Statistical Mechanics · Spaceflight effects on biology · Field-Flow Fractionation Techniques
