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We propose a model of quantum-like (QL) processing of mental information.This model is based on quantum information theory. However, in contrast tomodels of "quantum physical brain" reducing mental activity (at least at thehighest level) to quantum physical phenomena in the brain, our model matcheswell with the basic neuronal paradigm of the cognitive science. QL informationprocessing is based (surprisingly) on classical electromagnetic signals inducedby joint activity of neurons. This novel approach to quantum information isbased on representation of quantum mechanics as a version of classical signaltheory which was recently elaborated by the author. The brain uses the QLrepresentation (QLR) for working with abstract concepts; concrete images aredescribed by classical information theory. Two processes, classical and QL, areperformed parallely. Moreover, information is actively transmitted from onerepresentation to another. A QL concept given in our model by a densityoperator can generate a variety of concrete images given by temporalrealizations of the corresponding (Gaussian) random signal. This signal has thecovariance operator coinciding with the density operator encoding the abstractconcept under consideration. The presence of various temporal scales in thebrain plays the crucial role in creation of QLR in the brain.

Quantum-like model of processing of information in the brain based on classical electromagnetic field