A DISSIPATIVE CASCADE OF SYMMETRY BREAKING FROM THE PLANCK SCALE TO THE INFORMATIONAL ASYMMETRY OF BIOPOLYMERS

MIKHAIL ALEXANDER NITSBERG

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Эта статья является препринтом и не была отрецензирована.
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A DISSIPATIVE CASCADE OF SYMMETRY BREAKING FROM THE PLANCK SCALE TO THE INFORMATIONAL ASYMMETRY OF BIOPOLYMERS

M. A. NITSBERG

2026-10-03

https://doi.org/10.24108/preprints-3116563

A dissipative cosmological framework is proposed, unifying observational phenomena across scales from 10−36 s to 103 years: baryon asymmetry (η_B ≈ 6.1 × 10−10), directed information flow RY → KM in genomes of three domains of life (DAI = 0.65–0.97), cosmochemical prerequisites of this pattern — the complete set of nucleic bases and chiral asymmetry in carbonaceous chondrites, synchronous emergence of writing in Mesopotamia and Egypt (~3400–3200 BC), and two experimentally testable results: the yield limit of the physical vacuum (M_crit = 27.04 pg, D_crit = 2.863 μm) and abiotic emergence of the RY → KM direction under circularly polarized UV in a laboratory reactor. The theory is a dissipative cascade: a hierarchy of symmetry breaking in nonequilibrium systems in the smooth continuum of spacetime. It is shown that Boltzmann thermodynamic entropy and Shannon information entropy are one and the same quantity. The vacuum yield limit E_max ≈ 2.05 × 10−32 J is derived from fundamental constants (ħ, c, G, Λ). The cosmological constant discrepancy is derived as (E_P / E_max)3 ≈ 10122. The critical mass of the quantum-to- classical transition is 27.04 picograms. The central result: the cascade determines the fine- tuning equation of the Universe — the intersection of conditions for the existence of all levels sets an extremely narrow window of parameters in which matter, life, consciousness, and culture arise simultaneously. An extension of the model introduces a closed nonlinear feedback loop (Cosmos–Society–Biosubstrate) whose stability is analyzed via the Nyquist and Routh–Hurwitz criteria. A bioprotection strategy is proposed, grounded in Wald's survivorship methodology and validated through specific pharmacological targets mapped to the loop's transfer function parameters.

Ссылка для цитирования:

NITSBERG M. A. 2026. A DISSIPATIVE CASCADE OF SYMMETRY BREAKING FROM THE PLANCK SCALE TO THE INFORMATIONAL ASYMMETRY OF BIOPOLYMERS. PREPRINTS.RU. https://doi.org/10.24108/preprints-3116563

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