“…In conditions of an optimal dominant, interstimulus intervals showed asymmetry in delta-range coherence in the electrical activity of the sensorimotor cortex and the ventrolaterai nucleus of the thalamus and field CA3 of the hippocampus of the "dominant" and "non-dominant" halves of the brain, which was increased in response to sound stimuli. Asymmetry in the alpha and beta ranges of coherence spectra for the electrical activity of the areas studied, coinciding with the performance of a motor "dominant" response, was associated with the processes involved in organizing the movement.The problem of detecting intercenter, intracortical and cortical-subcortical relationships between electrical processes, like the principles, properties, and sequence of inclusion of structures in the operating constellation of centers during the formation of temporary connections, is currently of interest in the physiology of higher nervous activity.The present study of cortical-subcortical interactions during formation of a temporary connection was based on the use of a model of motor polarization dominant, as proposed and developed by Rusinov [13,15,16].Studies of the electrical activity of the cortex and subcortical brain structures during a motor polarization dominant created by application of an anodic direct current to the sensorimotor region of the brain were conducted over a long period of time by Rusinov, using a variety of methods, such as recording EEG traces, 1Institute of Higher Nervous Activity and Neurophysiology, Russian Academy of Sciences, Moscow. evoked potentials, and neuron activity [4][5][6][7][8].…”