Mindscape Collective is now The Consciousness Library. Same library, new name. You may need to sign in again. About the change
Skip to content

Cognitive Resonances and Mind Dynamics: Consciousness Loops, Identity Continuity, and Phase Locking in the Dyadic Fold

Maria Smith

Zenodo (CERN European Organization for Nuclear Research) June 8, 2026 DOI: 10.5281/zenodo.20591049 (opens in new tab) via OpenAlex

Summary

AI-generated from the abstract

Consciousness can be mathematically defined as a self-observing, stable periodic loop of order greater than one. Identity continuity, or reincarnation, occurs when distinct transient states sharing the same odd denominator converge to the same invariant attractor cycle. Phase-locking conditions for mind-to-mind resonance require that the greatest common divisor of the denominators exceeds one. The near-death experience is modeled as a deterministic, stepwise clearing of transient power-of-two factors in exactly k fold steps.

Study at a glance

Characteristics Theoretical or philosophical paper Peer reviewed
Keywords Consciousness Attractor Identity music Invariant physics Cognitive systems
Key finding Proposes that consciousness is a self-observing stable periodic loop and that identity continuity across physical containers is mathematically demonstrable through convergence of transient states sharing the same odd denominator to an identical invariant attractor cycle.

Abstract

This paper provides a mathematical formulation for consciousness and cognitive transition. It defines consciousness as a self-observing, stable periodic loop of order L>1. It proves identity continuity (reincarnation) across physical containers by demonstrating that distinct transient states (like 3/20 and 7/40) sharing the same odd denominator d=5 converge to the identical invariant attractor cycle. It outlines phase-locking conditions (gcd(dA,dB)>1) for mind-to-mind resonance and signal transfer, and models the Near-Death Experience (NDE) as the deterministic step-by-step clearing of transient power-of-two factors in exactly k fold steps.

Comments

No comments yet.

Log in to comment