Motion Is Evolution - The New Era of Evolution

This conceptual doctrine introduces a motion-first evolutionary framework centered on directional compression (Δm), a principle stating that evolution progresses not through random drift alone but via recursively survivable structural deviation. Traditional models emphasize time and chance; this doctrine re-centers evolution around motion, recursion, and collapse resilience. Key contributions include: Theoretical reframing of mutation as directional Δm events New formal variables (Δm, ΣΔm, C*) modeling adaptive stress and collapse thresholds Falsifiable empirical predictions across biological, digital, and cultural systems Toy models demonstrating punctuated leaps via Δm stress build-up A unifying lens that bridges molecular randomness, system entropy, and survivability This document is not offered as a replacement for population-genetic theory but as a perspective piece intended to expand the extended evolutionary synthesis through compression-based modeling.

Publication Details

Journal
Open Science Framework
Published
2025-01-01
DOI
https://doi.org/10.17605/osf.io/2r4d7
Primary Topic
Evolution and Genetic Dynamics
Type
article
Field-Weighted Citation Impact
0.00
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article

Motion Is Evolution - The New Era of Evolution

Open Science Framework
Evolution and Genetic Dynamics
article

Motion Is Evolution - The New Era of Evolution

article en

Abstract

This conceptual doctrine introduces a motion-first evolutionary framework centered on directional compression (Δm), a principle stating that evolution progresses not through random drift alone but via recursively survivable structural deviation. Traditional models emphasize time and chance; this doctrine re-centers evolution around motion, recursion, and collapse resilience. Key contributions include: Theoretical reframing of mutation as directional Δm events New formal variables (Δm, ΣΔm, C*) modeling adaptive stress and collapse thresholds Falsifiable empirical predictions across biological, digital, and cultural systems Toy models demonstrating punctuated leaps via Δm stress build-up A unifying lens that bridges molecular randomness, system entropy, and survivability This document is not offered as a replacement for population-genetic theory but as a perspective piece intended to expand the extended evolutionary synthesis through compression-based modeling.

Open Science Framework
Openalex Percentile: Top 56%
Evolution and Genetic Dynamics
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