J. Leon Kenemans

The paper introduces a method to track covert attention using phase-modulated RIFT-EEG with multiple tags, enabling fine-resolution spatial and temporal attention mapping.

The paper investigates whether visual attention travels or teleports during covert shifts, finding no evidence of intermediate processing enhancement.

This study evaluates how preprocessing decisions affect P50 estimates in the paired-click paradigm, finding that correction pipelines improve precision compared to rejection pipelines.

This study shows that the frontal P3 EEG component predicts attentional lapses in both visual and auditory tasks, serving as a supramodal marker of impending attention failure.

This study examines the relationship between 3D mental rotation ability and 2D letter rotation performance, finding that 3D ability correlates with enhanced neural visual-spatial cortical activity during 2D tasks.

The paper measures proactive and reactive attentional markers in an EEG-eyetracking task and shows they are independent processes, with gaze bias predicting behavior.

This study demonstrates that covert attention can be reliably measured using RIFT on a 360Hz consumer monitor, expanding accessibility for cognitive neuroscience research.

The paper investigates the neural mechanisms of external and internal attentional selection using EEG and RIFT, finding that only external attention enhances sensory processing.

The paper re-analyzes an experiment showing that gaze biases during a memory task reflect attention to task-relevant stimulus endpoints rather than memorized orientations.

This study shows frontal theta power predicts response inhibition success in a stop-signal paradigm, with higher theta preceding successful stops and shorter Stop-Signal Reaction Times.

This paper implements and validates the first RIFT-EEG setup, showing that RIFT can evoke measurable oscillatory responses in EEG comparable to MEG.

The paper investigates how salience and reward affect impulse control, finding that high salience improves stopping performance and rewards benefit those with low task-induced motivation.

This study investigates how stop-signal salience affects inhibitory control by analyzing electro-cortical responses during stop-signal tasks.

The paper shows that memorized stimuli have stronger neural representations than perceived ones in a change-detection task, contradicting subjective experience.