\Psi-Architecture: Axiomatic Foundations of Adaptive Stability and the Geometry of Reality

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Authors: Anna Taranova
Cited by: 0

Abstract

This work presents a fundamental interdisciplinary framework that proposes an architectural description of reality as a unified Complex Adaptive System (CAS). Shifting away from object-oriented ontologies, the author introduces a flow-centered approach where physical laws, biological organization, and cognitive processes are treated as specific regimes of a single underlying circulation system. Key components of the research include: • Universal No-Go Theorem: A formal proof demonstrating the inherent impossibility of maintaining stability in complex systems through external optimization or control beyond a critical complexity threshold (N^*). • The Invariant of Adaptive Time (\tau = R \times C): Defined as a necessary condition for autonomous stability and the internal "rhythm" of systemic coherence. • Geometric Synchronization: A derivation of non-transmissive coordination, explaining how structural alignment occurs without signal transmission or energy exchange through toroidal topology and metric collapse. • The Ψ-Operator: Introduction of an architectural predicate that defines the admissibility of physical manifestations and the transition from potentiality to realized form. • Temporal Integration Nodes (TIN): A structural definition of the observer as a regime of "architectural superconductivity" where resistance approaches zero and circulation becomes lossless. The work bridges the gap between theoretical physics, systems theory, and cognitive science, establishing that reality is not a collection of partial maps, but a single, architecturally coherent structure where physics becomes a realization of geometric necessity.

Fields of Study & Subjects

Complex Systems and Dynamics Chaos Complexity and Education Philosophy and Theoretical Science

Publication details

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