EyeLink Reading and Language Eye-Tracking Publications
All EyeLink reading and language research publications up until 2023 (with some early 2024s) are listed below by year. You can search the publications using keywords such as Visual World, Comprehension, Speech Production, etc. You can also search for individual author names. If we missed any EyeLink reading or language articles, please email us!
2000 |
Gillian A. OʼDriscoll; Anne-Lise V. G. Wolff; Chawki Benkelfat; Patrik S. Florencio; Samarthji Lal; Alan C. Evans Functional neuroanatomy of smooth pursuit and predictive saccades Journal Article In: NeuroReport, vol. 11, no. 6, pp. 1335–1340, 2000. @article{OʼDriscoll2000, We used PET to study differences in cerebral blood flow (CBF) in smooth pursuit, predictive saccades and fixation. Eye movements were monitored in the scanner. Compared with fixation, pursuit and predictive saccades activated a network of highly similar areas, including frontal eye fields, supplementary eye fields, V5 and medial cuneus. Our findings are consistent with non-human primate studies that suggest that pursuit and saccades are controlled by similar and adjacent neural areas. Pursuit was associated with greater activation of caudate than saccades, suggesting a role for basal ganglia in pursuit that is consistent with studies of neurological populations. Saccades were associated with greater activation of cerebellum and frontal eye fields. A frontal-cerebellar loop may be important in coordinating the preparation and timing of saccades in predictive tracking. |
1999 |
T. Niemann; Markus Lappe; A. Büscher; Klaus-Peter Hoffmann Ocular responses to radial optic flow and single accelerated targets in humans Journal Article In: Vision Research, vol. 39, no. 7, pp. 1359–1371, 1999. @article{Niemann1999, Self-movement in a structured environment induces retinal image motion called optic flow. Optic flow on one hand provides information about the direction of self-motion. On the other hand optic flow presents large field visual motion which will elicit eye movements for the purpose of image stabilization. We investigated oculomotor behavior in humans during the presentation of radial optic flow fields which simulated forward or backward self-motion. Different conditions and oculomotor tasks were compared. In one condition, subjects had to actively pursue single dots in a radial flow pattern. In a second condition, subjects had to pursue single dots over a dark background. These dots accelerated or decelerated similar to single dots in radial optic flow. In a third condition, subjects were asked to passively view the entire optic flow stimulus. Smooth pursuit eye movements with high gain were observed when dots were actively pursued. This was true for single dots moving over a homogeneous background and for single dots in the optic flow. Passive viewing of optic flow stimuli evoked eye movements that resembled an optokinetic nystagmus. Slow phase eye movements tracked the motion of elements in the optic flow. Gain was low for simulated forward self-motion (expanding optic flow) and high for simulated backward movement self-motion (contracting optic flow). Thus, voluntary pursuit and passive optokinetic responses yielded different gain for the tracking of elements of an expanding optic flow pattern. During passive viewing of the optic flow stimulus, gaze was usually at or near the focus of radial flow. Our results give insights into the oculomotor performances and needs for image stabilization during self-motion and in the role of gaze strategy for the detection of the direction of heading. |
Jan Theeuwes; Arthur F. Kramer; Sowon Hahn; David E. Irwin; Gregory J. Zelinsky Influence of attentional capture on oculomotor control Journal Article In: Journal of Experimental Psychology: Human Perception and Performance, vol. 25, no. 6, pp. 1595–1608, 1999. @article{Theeuwes1999, Previous research has shown that when searching for a color singleton, top-down control cannot prevent attentional capture by an abrupt visual onset. The present research addressed whether a task-irrelevant abrupt onset would affect eye movement behavior when searching for a color singleton. Results show that in many instances the eye moved in the direction of the task-irrelevant abrupt onset. There was evidence that top-down control could neither entirely prevent attentional capture by visual onsets nor prevent the eye from starting to move in the direction of the onset. Results suggest parallel programming of 2 saccades: 1 voluntary goal-directed eye movement toward the color singleton target and 1 stimulus-driven eye movement reflexively elicited by the abrupt onset. A neurophysiologically plausible model that can account for the current findings is discussed. |