Reset Dynamics, Paper 15 Extra1: Structural Cost Barriers and a Constructive Microscopic Mechanism for Emergent Time

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Authors: feiyue pan
Cited by: 2
References: 4

Abstract

This paper provides a constructive microscopic mechanism for emergent time within the Reset Dynamics model by embedding macroscopic phenomenological primitives into the Dissipative Numeral System (DNS) cost-hierarchy framework. We demonstrate that: (1) the phenomenological consistency ratio R ≤ 1 corresponds to the radix cost boundary condition C_{M+1} ≥ Γ, where available budget fails to support the creation of the next structural layer; (2) macroscopic entropy is modeled as a coarse-grained projection of accumulated tension trapped at the structural zero 0_T; (3) the Reset step is formulated as a state-space re-embedding operator with a Landauer-inspired dissipation bound ΔS_jump = ε + ξ∑C_n (0 < ξ ≤ 1); and (4) emergent time is decoupled from background continuous time by founding the arrow of time entirely on the event-counting parameter τ_N = ∑ 1(E_i). This work closes the gap between microscopic DNS operator dynamics and macroscopic temporal emergence, providing a complete tri-level cascade: Microscopic Structure (DNS) → Mesoscopic Threshold-Induced Reconfiguration (Reset) → Macroscopic Emergent Arrow (Time). Version 2.1 incorporates terminology refinements, clarifies key mathematical definitions (tension integration intervals, reset rules, order parameters), and adjusts claims to their appropriate scope within the model.

Fields of Study & Subjects

Control and Stability of Dynamical Systems Advanced Thermodynamics and Statistical Mechanics Thermoelastic and Magnetoelastic Phenomena

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
31 August 2026
Document type
Preprint