Martin Rolfs

The paper shows that visual mechanisms reduce perceived motion amplitude and velocity during saccades, with effects largely independent of movement amplitude.

This study investigates awareness and control of catch-up saccades during smooth pursuit eye movements, finding limited conscious control and low awareness despite visual feedback.

The paper investigates whether saccadic selection in visual working memory is based on space or object structure, finding that memory benefits spread within objects but not across them.

This study investigates how visual adaptation affects causality perception, finding spatial specificity and incomplete recovery over time.

The paper tracks afterimage movement during saccades and finds it is hypometric and driven by feedforward predictions of visual consequences.

The paper demonstrates image-specific foveal feedback during saccade preparation using fMRI, showing decoding of peripheral targets from foveal areas and a u-shaped decoding curve.

This study investigates how intra-saccadic motion streaks affect secondary saccade latency and EEG decoding of post-saccadic target location, finding early visual signals linked to gaze correction.

The paper investigates saccadic omission by studying saccade-induced motion smear using tachistoscopic displays and computational models.

This study shows that the magnitude and timing of pre-saccadic foveal prediction depend on the visibility of the saccade target, with higher signal-to-noise ratios enhancing congruency effects.

This study investigates how intention modulates awareness of microsaccades by comparing intended, unintended, and spontaneous eye movements and their visual consequences.

The paper investigates how saccadic eye movements constrain high-speed visual perception by linking stimulus visibility to retinal motion patterns during fixation.

The paper investigates whether contextual influences on causal perception rely on local launch detectors by using visual adaptation to test the effect of context on causal judgments.

The paper uses visual adaptation to show that perception of causality in visual interactions relies on specialized visual routines tuned to motion direction.

This paper investigates whether microsaccades, small eye movements, are associated with a feeling of agency, finding no temporal binding between microsaccades and their sensory consequences.

This study uses a robotics-based algorithm, AICON, to model human visual illusions and validates its predictions through psychophysical experiments, revealing individual differences in visual processing.

This paper introduces a computational framework to simulate human gaze behavior in dynamic scenes, showing that object-based attention improves the accuracy of simulated eye movements compared to spatial-based models.

The paper shows that foveal processing enhances sensitivity to visual features of saccade targets before eye movements, supporting trans-saccadic visual continuity.

The paper shows that oculomotor freezing occurs only when stimuli are consciously detected, independent of decision bias.

This paper defines, models, and detects saccades while accounting for post-saccadic oscillations using biophysical models and novel algorithms.

The paper shows that intra-saccadic motion streaks enhance gaze correction by facilitating object correspondence during saccades.

This paper introduces an adaptive velocity-based algorithm for online saccade detection that improves speed and accuracy compared to existing methods.

This paper develops a generative learning model to describe saccade adaptation under sinusoidal error variations, showing periodic responses and drift in adaptation gain.