Non-local quantum evolution of entangled ensemble states in neural nets and its significance for brain function and a theory of consciousness

TL;DR

This paper proposes a quantum neural network model where entangled states evolve non-locally, potentially explaining consciousness and mental processes through quantum coherence and Darwinian selection mechanisms.

Contribution

It introduces a novel framework linking quantum entanglement, neural dynamics, and evolution to explain consciousness and cognitive functions.

Findings

Quantum coherence can be generated within neurons.

Entangled neural states evolve through Darwinian selection.

Implications for memory, creativity, and consciousness are discussed.

Abstract

Current quantum theories of consciousness suggest a configuration space of an entangled ensemble state as global work space for conscious experience. This study will describe a procedure for adjustment of the singlet evolution of a quantum computation to a classical signal input by action potentials. The computational output of an entangled state in a single neuron will be selected in a network environment by "survival of the fittest" coupling with other neurons. Darwinian evolution of this coupling will result in a binding of action potentials to a convoluted orbit of phase-locked oscillations with harmonic, m-adic, or fractal periodicity. Progressive integration of signal inputs will evolve a present memory space independent from the history of construction. Implications for mental processes, e.g., associative memory, creativity, and consciousness will be discussed. A model for the generation of quantum coherence in a single neuron will be suggested.