Experiment 1 design. Experiment 1 design. A, Differences in cortical spacing in peripheral vision. Top row, Screen coordinates of stimuli in peripheral.

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Experiment 1 design. Experiment 1 design. A, Differences in cortical spacing in peripheral vision. Top row, Screen coordinates of stimuli in peripheral vision with respect to the point of fixation (black spot). Bottom row, Inter-item spacing after cortical transformation. Such a cortical representation of space occurs in V1, which is hypothesized to maintain memory representations. Cortically transformed coordinates are normalized to the central target position. Green spots and purple diamonds represent radial and tangential spatial arrangements of stimuli, respectively. Note that, although stimuli are equally spaced in screen coordinates across conditions, radially arranged stimuli have less intracortical spacing than tangentially arranged stimuli. B, Stimulus design. Memoranda were randomly oriented colored bars presented sequentially along either the radial or tangential axis. Note that the center stimulus in each condition occupies the same screen (and therefore cortical) location. C, Example trial sequence. Observers fixated a white spot while memoranda were presented in sequence. Following a delay after the presentation of the third item, a probe was shown matching the color and location of one item chosen at random, cueing observers to move the mouse to report the remembered orientation of that item. A response bar appeared within the circle after the first mouse movement was detected, allowing observers to make their response using a method of adjustment. William J. Harrison, and Paul M. Bays J. Neurosci. 2018;38:3116-3123 ©2018 by Society for Neuroscience