Structural Time and Universal Conduction: An Architectural Framework Beyond Causality

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Authors: Anna Taranova
Cited by: 0

Abstract

This work proposes a unified architectural framework for reality based on flow, conduction, and structural admissibility rather than objects, forces, or signal transmission. Reality is described as a closed architecture of circulating flows, where stable forms exist only as configurations capable of conducting change without structural collapse. Stability is not equilibrium but preservation of form through continuous internal circulation. A central invariant of the framework is structural time τ = R × C, where R denotes resistance (form retention) and C denotes capacity (form plasticity). Structural stability requires instantaneous compensation between R and C, ensuring preservation of τ. The framework introduces current (I) as the realized architectural flow through systems understood as conductors. Systems do not generate flow; they conduct architectural currents from realizability space according to their beam structure. A fundamental balance relation is established: I × τ = ΔV × C Correlation between systems is shown to arise through coincidence—a regime of geometric admissibility—rather than causal transmission or control. This explains coordinated behavior without signaling, optimization, or external governance. Consciousness is formalized as a region of increased architectural conductivity, enabling dense coincidence and minimal functional resistance. Internal and external phenomena are unified as manifestations of the same circulating architecture. The framework reframes physical laws as partial regimes of admissible architecture rather than primary ontological principles and provides a non-dual, non-deterministic foundation for understanding matter, consciousness, and collective dynamics.

Fields of Study & Subjects

Philosophy and Theoretical Science Complex Systems and Dynamics Philosophical and Theoretical Analysis

Publication details

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