Abstract: Stimulation of a sensor array, by edges comprising a feature pattern, optical characters or moving edge(s), emits pulses that converge at nodes in serial arrays, which reemit rapidly if input pulses are in temporal synchrony. The repetitive pulses traverse the serial arrays without encoding image features in a temporal data stream that decodes as an image frame. This dimensional reduction of serial arrays reemits convergent one-dimensional (1D) pulses in greater numbers when stimulus feature patterns match sensor or node topographical patterns, thereby serially extracting context, optical flow and inference. Reemitted 1D pulses rapidly identify and locate looming targets without repetitive feedback.

Abstract: Stimulation of sensors comprising an orthogonal x-y array, by abrupt edges or events, emits pulses that converge at nodes in serial two-dimensional (2D) arrays, which reemit rapidly if input pulses are in temporal synchrony. By gating sensors at a frequency with a wavelength between emitted pulses equal to the spatial interval between serial surfaces, identical pulses synchronize, or impedance match, repetitively at the serially repeated arrays. The pulses impedance match stimulated edges or events, as emitted one-dimensional (1D) z locations, continuously through aligned nodes in the serial 2D arrays, so that distal nodes that latently converge identical 1D z pulses become synchronous in time. This dimensional reduction of 2D arrays with synchronized 1D pulses, is a process that eliminates the coding, transmittal and decoding of information to reconstruct a 2D sensory pattern.