Brain Theory From A Circuits And Systems Perspective : How Electrical Science Explains Neuro-circuits, Neuro-systems, and Qubits

Burger, John Robert

Brain Theory From A Circuits And Systems Perspective : How Electrical Science Explains Neuro-circuits, Neuro-systems, and Qubits by John Robert Burger - New York Springer International Publishing 2013 - 1 recurso en línea (XVI, 227 p.) 125 il., 39 il. col. - Springer Series in Cognitive and Neural Systems 6 . - Springer Series in Cognitive and Neural Systems 6 .

Brain Theory From A Circuits And Systems Perspective offers a theory of human consciousness as a natural result of pulsating neurons and synapses within a complex circuit. The book summarizes the electrical, as opposed to the chemical, nature of a brain, and so moves away from customary molecular biology- and biochemistry-focused explanations for consciousness.The book goes beyond the usual structures of artificial neural networks; employing first principles, a particular physical system is synthesized for conscious short term memory, as well as for associative (subconsciously edited) long term memory. pursues the search for deeper computational power:Âרere ordinary concepts of logic fail to explain inspired choices concerning artistic appraisal, truth judgment, and understanding, pulsating qubit logic unleashes a fresh avenue for connectivity. Neuroquantology is discussed,Âcluding electron tunneling as a regulator of neural actions, and proposed quantum computing within microtubules.This thought provoking work led the author to reveal neurons with qubit properties, or simulated qubits.Âmulated qubits do not require a coherent quantum system, and so remain robust for massively parallel controlled toggling and probabilistic computations. Brain Theory From A Circuits And Systems Perspective is supported with physical circuit examples, end-of-chapter exercises, and neuron simulation experiments, and will be valuable to anyone interested in neuro-circuits, neuro-systems and qubits.

9781461464129


Desarrollo neurológico

QP363.5 / B874 2013 EB