Home > Soul > Part III > 37. The Mind As a Quantum Computer

Section A

Section B

Section C

Section D

Section E

Section F

 

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Figure 37a. This chapter shows that the mind could be a quantum computer with qubits implemented by polarized electromagnetic waves (photons). These photons are emitted from ions as they pass through ion channels, just like the electrons oscillating in an antenna. However, unlike electrons, the ions also produce significant gravitational waves to overcome the decoherence problem in quantum computing.

Quantum computers promise to revolutionize computing technologies. They use "qubit" as the basic unit of information, instead of the classical "bit". In the past, most developers of quantum computers (e.g., Google and IBM) employed superconducting circuits to implement qubits. Recently, a growing number of researchers believed that the photon-based qubits (Slussarenko and Pryde, 2019) could be a more promising approach to quantum computing. Psi Quantum, a startup company that has raised over $200M since 2016, claims: "A useful quantum computer requires at least a million qubits.....Photonics is the only way to deliver 1,000,000 qubits."

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Figure 37b. When a neuron fires, most ion channels are open, allowing ions (e.g., Na+ and K+) to pass through the channels, thereby producing electromagnetic (EM) waves. The ion channel thus resembles a straight antenna in which oscillating electrons generate polarized EM waves (photons).

According to mind-body dualism, the mind is an entity distinct from the brain. Conscious perception of a scene is imprinted in the mind, not the brain. Thus, the information about perceived scenes is stored in the "mind" whose physical nature remains to be investigated. Remarkably, the mind seems to use polarized photons to implement qubits in the information. Neuronal firing is accompanied by ionic fluxes through ion channels. Physical laws dictate that any accelerating charged particle will radiate electromagnetic (EM) waves and any accelerating particle with mass should produce gravitational (GR) waves. An ion has both mass and charge. Before ions enter ion channels, they move slowly and randomly in the solution, with negligible acceleration. As a neuron fires, a large number of ions will pass through the channels, with strong acceleration driven by the electrochemical gradient. Because ions possess both mass and charge, their accelerated motion will produce both GR and EM waves.

Hence, the ionic motion in channels resembles the oscillation of electrons in a straight antenna, which is known to emit polarized EM waves (photons). The development of a useful quantum computer faces a major hurdle: the decoherence problem. That is, the interaction between qubits and the environment limits the coherence time such that the information stored in qubits is lost within a tiny fraction of a second. The decoherence problem becomes more serious as the number of qubits in a computer increases.

A brain consists of trillions of ion channels. Any cognitive task may require millions of coherent (entangled) photons emitted from ions during synchronized neuronal firing. Their coherence may last for several seconds. Then, how can the mind maintain the coherence of millions of qubits for such a long duration? The answer could lie in the GR waves emitted from ions. Further details are discussed in the following sections.

A. The HOM Interference

B. Quantum Entanglement

C. The Importance of Gravitational Force in Coherence

D. The Qubits of the Mind Information

E. The Mind is a Bose-Einstein Condensate

F. Two-Stage Perception by the Mind

 

Author: Frank Lee
Posted on: 2020-09-25