The Phase Transition Framework: A Unified Structural Account of Dissipative System Reorganization.
Abstract
This paper employs comparative structural analysis across six dissipative system types —molecular (ATP hydrolysis), stellar (main sequence to remnant), ecological (massextinction and radiation), civilizational (complexity collapse and successor emergence),biological-demographic (population-level anticipatory response), and network-financial(Bitcoin Mempool Crisis, May 2023) — to identify a consistent seven-phasereorganization pattern governing open dissipative systems at threshold. The frameworkderives this pattern from first principles: driven dissipative systems are oscillators;oscillators resolve to harmonic periodicity; the minimal irreducible harmonic cycle isseven distinct states (the prime-7 octave); triangular number accumulation modulo 7produces the sequence 1-3-6-3-1-0-0, which maps exactly onto the observed phaseprogression; and the void states (beats 6-7) represent thermodynamic clearance undermaximum negative pressure rather than absence. The sum of the complete oscillator(1+3+6+3+1+7+7=28) equals the seventh triangular number and a perfect number,confirming algebraic self-closure. A secondary finding identifies the golden ratio φ andits power series as empirically observed convergence values at which efficient dissipativesystems stabilize — consistent with Ruiz's (2025) first-principles derivation. The Bitcoincase provides exact empirical confirmation: Binance's centralized node infrastructure(En=0.850) crossed the φ⁻² threshold at WPO=0.382 exactly at the moment of firstwithdrawal halt on May 7, 2023, while Bitcoin's distributed base layer (En=1.0) remainedabove threshold in the identical thermodynamic environment. A preregistered forwardvalidation window (February 11 – November 9, 2026) is documented in thesupplementary addendum, with geometric center February 19, 2026 (August 5, 2024breach + τ = 562 days).
Fields of Study & Subjects
Complex Systems and Dynamics
Advanced Mathematical Theories and Applications
Chaos
Complexity
and Education
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 11 March 2026
- Language
- EN
- Document type
- Preprint