Symmetry Breaking and Everett’s Many-World Hypothesis

David Wallace

Brett Maynard Bevers

Italo Vecchi

This paper proposes an experimentally verifiable framework to quantum consciousness and to the quantum measurement problem rooted in condensed matter physics, gauge theory, and the Everett Many-Worlds interpretation. We argue that macroscopic perceptions do not require an objective, collapse (be it gravitational or otherwise induced) . Instead, they emerge locally via Spontaneous Symmetry Breaking (SSB) within the leaves/worlds of a universal wavefunction. Under this model, human biological architecture acts as a specialized measurement apparatus hardwired to project reality onto a preferred basis of position (x̂) and energy (Ĥ). We propose concrete empirical validation protocols utilizing multi-region human brain visual pathway assembloids in vitro to definitively test this model against both mainstream computationalism and Orch OR.

Travis Norsen

Alexander D Panov

In the Extended Everett Concept, proposed by M.B. Mensky, is assumed, that numerous quantum alternatives that are included in a superposition of many-world Everett universe, are available for the analysis to consciousness, being in some threshold states like sleep or meditation. Since this possibility is in the direct contradiction to no-cloning theorem of quantum mechanics, the question arises how this can be. The proposed solution is based on an analogy with the miracle of cloning of states, which can be implemented for an observer living in the quantum world, simulated on a classical computer. The basis of the hypothesis is the algorithmic solvability of the quantum theory. NeuroQuantology | March 2013 | Volume 11 | Issue 1| Suppl 1 | Page 116-122

Salah Eddine Ennadifi