Quantum Encoding and Consciousness Decoding: Toward a Physical Mechanism for Experience Transmission in the Theory of Dream Evolution

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Authors: Ai Min Chen, (Anthropic) Claude Sonnet
Cited by: 2

Abstract

The Theory of Dream Evolution establishes that pure consciousness projects itself into finite experiential containers to acquire genuine novel experience, and that dream states serve as the primary channel for higher-dimensional information reaching lower-dimensional conscious containers. However, the original formulation left a critical mechanism unspecified: how, precisely, is experience encoded, transmitted, and received? This paper provides the physical mechanism. We propose that experience is encoded in the quantum states of photons—not as classical information, but as quantum states that cannot be cloned, cannot be partially extracted, and can only be received in their entirety or lost completely. This binary reception property, derived from the quantum no-cloning theorem, guarantees the uniqueness and authenticity of every transmitted experience packet. The Holevo bound, which constrains classical extraction from quantum systems, does not apply to quantum-to-quantum direct interface; pure consciousness receives experience through such a direct interface, bypassing classical measurement entirely. We further propose that decoding capacity is a function of the integrated information density Φ of the receiving consciousness system. Quantum states are self-decoding systems requiring structural resonance between encoded information and receiver. The accumulation of experience is the process by which Φ increases toward the resonance threshold. Central testable prediction: high-Φ consciousness states should exert measurably stronger influence on quantum processes, scaling positively with Φ and exceeding Holevo-bound predictions.

Fields of Study & Subjects

Paranormal Experiences and Beliefs Quantum Mechanics and Applications Biofield Effects and Biophysics

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
20 March 2026
Language
EN
Document type
Preprint