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Mathematical model of the microcircuit organization of freely scalable ECI–network as a former of spatial processing in hippocampal–entorhinal brain system

A new theoretical approach towards mechanisms of spatial processing and their investigation is described. It is based on the latest neurobiological data and the results obtained from our computational model studies. We show: (i) phase (time) coding mechanism for signal sequences in the oscillatory networks with even cyclic inhibition (ECI-networks); (ii) that every complicated signal may be represented as an ordered sequence of events (episodes) in the microtemporal scale; (iii) that sharp-wave-ripple is similar, SWR the coded temporary sequences of signals of an episode cause direct or return losses of an episode of a spatial trajectory, depending on the last time interval in an episode; (iv) the received analog of this phenomenon is a neurodynamic correlate (decision-making) of the current choice of the a spatial trajectory direction.