Neural network simulations of the primate oculomotor system. II. Frames of reference
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Cited by (17)
Implications of interrupted eye-head gaze shifts for resettable integrator reset
2006, Brain Research BulletinCitation Excerpt :Although not tested in circumstances identical to the herein simulated ones (i.e., when the line of sight shifts towards a distractor before its redirection to the “target”), this is true even when the line of sight shifts in the interval between presentation of a target and execution of a saccade towards it (e.g., “double-step” stimulation experiments [12]). The neural processes needed to account for the accuracy of saccades in double-step stimulation experiments are thought to be complete by the time commands exit the SC (reviewed in [43,26]) and are therefore beyond the scope of the present model. Suffices to say that a model that is consistent with subject performance and relies on signals indicative of eye displacement rather than eye position has been proposed for the SC in the form of the “vector subtraction hypothesis” [28,26].
A model of visual-spatial memory across saccades
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