Michele Rucci

The paper shows that saccade amplitude filters visual information by spatial frequency, affecting post-saccadic visual sensitivity.

This study replicates retinal stabilization experiments using continuous displays, finding reduced sensitivity to high spatial frequencies, suggesting stimulus flicker is not the cause of perceptual impairments.

This paper develops a high-resolution method to map foveal vision by combining eye-tracking and gaze-contingent display control, revealing individual variability in foveal sensitivity.

This study shows that residual retinal motion during pursuit eye movements helps compress visual information and influences perceptual judgments.

This study investigates how subfoveal scotomas affect fixation behavior and reveals fine-scale plasticity in the human visuomotor system.

This paper demonstrates a high refresh rate display integrated with an AOSLO to enable natural monocular viewing and precise psychophysics experiments with high spatial and temporal resolution.

This study shows that eye blinks enhance visual sensitivity by increasing retinal stimulation power, particularly for low spatial frequency stimuli.

This study maps the blind spot borders using high-resolution eye-tracking and retinal stabilization, revealing that the transition from vision to blindness occurs over a broad area rather than abruptly.

This paper describes a digital DPI system for high-resolution eye-tracking with sub-arcminute resolution and 1 Khz sampling, demonstrating its effectiveness on artificial and human eyes.

The paper shows that eye drift during fixation correlates with visual acuity, allowing acuity prediction from drift patterns without direct measurement.

This study demonstrates that humans use high-resolution extra-retinal knowledge of fixational eye motion to infer spatial relations, challenging the assumption that visual perception relies solely on retinal input.

This paper characterizes neural selectivity in free-viewing primates, showing that receptive fields and tuning properties can be recovered from multiple cortical areas using natural behavior and high-precision eye tracking.

This study investigates how saccadic suppression affects foveal vision during microsaccades in a naturalistic task, revealing non-uniform sensitivity and dynamic suppression patterns.

This study shows that eye movements transform visual scenes into spatiotemporal flows on the retina, reconciling contrast sensitivity functions with retinal ganglion cell responses.