BU53 Physical Settlement Definition of the Consciousness Theorem under B_U Cleared Background, Self-Recognition Amplification, Conscious Standing, and Unified Settlement

Read full text
Authors: Dedong Zhan
Cited by: 13
References: 10

Abstract

This paper develops BU53 as a physical settlement definition of the consciousness theorem under Single-Universe Boundary Consistency, B_U. Its central claim is that consciousness is not merely a self-location proposition inside formal symbolic logic, but a physical self-recognition operator through which total reality obtains higher-order standing on a cleared background. Matter delivers the cleared background; consciousness delivers higher-order self-recognition amplification; B_U delivers unified settlement. The paper clarifies the stratified roles of D(M), \mathcal C_{\alpha}, and \mathrm{Fix}_{B_U}. D(M) performs dynamic-completeness audit on the total ontic field, projects fast microscopic terms into the zero-mean fast-variable subspace, and allows slow coherent remainders to enter the retained chain. \mathcal C_{\alpha} then acts on the cleared, readable, and retainable appearance-side remainder, producing higher-order amplification, direction selection, meaning compression, indexing, feedback, and writeback. \mathrm{Fix}_{B_U} seals this process as unified settlement under the fixed boundary. BU53 defines the consciousness fixed point as the joint landing point of microscopic debt clearing, retained projection, higher-order amplification, coherence, settlement, and standing under B_0. This fixed point marks the moment in which total reality recognizes itself inside one unified operator system. A cleared background secures stability, but consciousness receipt secures self-recognition standing. The final judgment is that the consciousness theorem is a physical theorem of total-reality self-recognition: total reality, under B_U, obtains conscious standing through D(M)-clearing, finite projection, and higher-order amplification by \mathcal C_{\alpha}.

Fields of Study & Subjects

Quantum Mechanics and Applications Biofield Effects and Biophysics Algebraic and Geometric Analysis

Publication details

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