Luís F. Ciria

The paper shows that multisensory perceptual decision-making remains accurate even as alertness decreases, with specific changes in decision processes and neural patterns.

This study shows that multisensory integration remains functional during drowsiness, with preserved core computations but altered neural dynamics.

This study examines how high physical activation affects neural markers of cognitive control, finding no significant behavioral impact but unreliable neural measures.

This study replicates and extends a previous finding that intolerance of uncertainty (IU) is not significantly linked to preferring immediate, less certain rewards over delayed, more certain ones.

This study examines how cognitive control varies during high and low arousal states using an auditory conflict task, finding distinct behavioral dynamics in decision-making processes.

This study investigates how anticipated competition levels modulate preparatory brain activity and task performance using EEG and MVPA in a sex judgment task.

This paper reviews RCTs on exercise's cognitive effects, finding small benefits that diminish with bias correction and methodological issues.

The paper investigates how high and low arousal levels affect cognitive flexibility during probabilistic learning in humans, finding distinct decision-making patterns under each condition.

This study tests if tDCS over the left DLPFC affects cycling performance and EEG activity, finding no significant differences in power output or brain activity across stimulation conditions.

This study examines brain oscillatory activity during acute aerobic exercise and finds increased power across frequencies and specific changes in theta, alpha, and beta power during moderate-to-high intensity cycling.

This study examines how acute physical exercise affects brain oscillatory activity and inhibitory control in young adults, finding increased oscillatory activity during exercise that dissipates quickly, with no impact on inhibitory control.

This study compares neural responses to heartbeats between physically trained and sedentary young adults, finding differences in pre-stimulus processing that correlate with behavioral performance in the trained group.