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ULTIMATE COMPUTING - Quantum Consciousness Studies

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34 Brain/Mind/Computer<br />

computers. These neural net models, to be discussed later in this book, are based<br />

on relatively simple assumptions regarding interneuronal synapses as switches<br />

between neurons. Dynamic patterns of neural net activity can simulate systems<br />

capable of learning, independent recognition, different “mental” states, and with<br />

some imagination, rudimentary consciousness. The general architecture of<br />

parallel computers is similar to neurons within the brain, and can take advantage<br />

of simultaneous processing with lateral resolution of conflicting concepts. Despite<br />

these apparent similarities, the brain’s complexity and the dynamic vastness of<br />

human consciousness remain unassailable by current technology. The mind<br />

remains enigmatic to brain and computer.<br />

Figure 2.1: The Brain/Mind/Computer metaphorical triangle. Is the cytoskeleton<br />

the key to understanding<br />

Brain, mind, and computer are mutually metaphorical; each is related to the<br />

other in ways that are not clearly understood. This impasse, the<br />

“brain/mind/computer triangle,” is based on an incorrect assumption. The<br />

irreducible substrate of information processing within the brain has been assumed<br />

to be the notoriously slow interneuronal synapse. Consequently, synapses have<br />

been compared to simple switches, and the brain has been compared to a<br />

computer composed of a collection of synaptic switches. Because each neuron<br />

within the brain has up to several hundred thousand synapses, it must “integrate”<br />

information from among these synapses to regulate its output. Neurons utilize a<br />

variety of analog functions including dendritic morphology, slow wave membrane<br />

properties, and cytoskeletal activities which determine their responses within<br />

neural networks, and which alter synaptic efficacy as apparent mechanisms of<br />

learning. Thus each of the billions of neurons in the brain is a computer.<br />

Similarly, single cell organisms which have no synapses and are independent<br />

agents perform complex tasks involving rudimentary decision making, behavior,

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