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A Non-Copyable Component of Conscious Identity: Empirical Predictions from Eleven Identical Brains

Kande Lekamalaya Senarath Dayathilake

March 4, 2026 DOI: 10.33774/coe-2026-prf3h (opens in new tab)

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AI-extracted from the abstract
Characteristics Theoretical or philosophical paper
Keywords Consciousness Probabilistic logic Component thermodynamics Falsifiability Mirroring Action physics Identity music Analogy Multiplication music Cognitive science Artificial intelligence Statistical model Theoretical computer science Quantum Reduction mathematics Embodied cognition Encoding memory Information theory Similarity geometry
Key points Proposes that a quantum-informational model with a non-copyable identity carrier can resolve the logical trilemma posed by brain material turnover and personal continuity, generating testable predictions including measurable deviations in action potentials.

Abstract

Each morning, one wakes as the same person who slept. This familiarity obscures its strangeness: every atom in the brain has been replaced many times since childhood. The brain present today shares no material particle with the brain present forty years ago. What physical principle explains this continuity? Here I present three hypothetical thought experiments—perfect revival, perfect copy, and simultaneous multiplication of physically identical brains—that expose a logical trilemma for any framework identifying consciousness solely with brain structure or information processing. Analysis suggests that Global Neuronal Workspace Theory, Integrated Information Theory, and Orchestrated Objective Reduction each face difficulties resolving this trilemma. I therefore propose a quantum-informational model in which consciousness includes a non-copyable identity carrier (\Psi-I) coupled to an evolvable mental pattern (\Psi-G) through bidirectional interaction with the spatiotemporal structure of neural electromagnetic fields generated by voltage-gated ion channels. \Psi-G records volitional neural activity and exerts weak probabilistic bias on sodium and potassium channel kinetics. The model generates six falsifiable predictions with quantitative thresholds. The most direct—that action potentials from conscious neurons will show 0.5-3 \mathrm{mV} deviations from Hodgkin-Huxley waveforms—is testable within months using existing patch-clamp techniques. Four additional predictions address the finite and conserved nature of \Psi-I complexes, including demographic constraints and testable consequences of the multiplication thought experiment. A conceptual analogy to quantum teleportation is noted as a mathematical formalism, not a physical claim. This framework offers a testable approach to the Subjective Binding Problem while generating immediately testable hypotheses.