Patrick Haggard

The paper investigates how people use explicit reliability markers in decision-making and find they overestimate source reliability and are influenced by unreliable sources.

This study investigates how cardiac interoception interacts with tactile perception, finding both competitive and facilitative effects on neural responses and self-relevance encoding.

This study investigates how mechanical adaptation affects the perception of mid-air ultrasound vibrotactile stimuli, finding frequency-specific impairments in detection thresholds.

The paper shows that hippocampal-entorhinal circuits and SMA represent action plans and their outcomes, with hippocampal activity scaling with outcome similarity and SMA responding to overlapping actions.

This paper introduces ESI, a non-invasive method to map spinal cord electrical activity, revealing distinct spatiotemporal responses and attention modulation effects.

The paper investigates how spinal cord organization influences the perception of the Thermal Grill Illusion, finding that spatial arrangement of warm and cold stimuli affects burning sensations.

This study shows that touch inhibits cold perception by using a non-contact cooling method and finding reduced sensitivity to cooling when touch is present.

The paper shows that simultaneous thermal and tactile stimuli enhance perception in mouse forepaw primary somatosensory cortex through changes in neuronal response dynamics and recruitment of silent neurons.

This study investigates adaptive autonomy in human decision-making by analyzing performance in a competitive game where participants must avoid habitual and sequential action patterns.

The paper examines thermosensitive spots on the skin, finding inconsistency in their sensory responses and locations across time, challenging the labelled line theory of sensory specificity.

The paper examines neural dynamics in human primary motor cortex during brain-machine-interface mediated actions, showing that M1 encodes the onset of subjective intention.

This study shows that active self-touch after the rubber hand illusion reduces proprioceptive drift, indicating it restores bodily self-awareness, while involuntary self-touch does not.

This study challenges the textbook view that high-frequency vibrotactile stimuli have poor spatial resolution by showing they can produce good spatial acuity.

The paper introduces a non-contact cooling stimulator to study cold sensation without mechanical contact, finding cold detection thresholds in humans.

The paper shows that using endpoint feedback in a visuomotor task promotes cognitive strategy use, leading to better intermanual transfer of learning compared to continuous feedback.

The paper investigates how sensory and cognitive factors influence the integration of tactile motion signals across multiple fingerpads, finding that within-hand integration is limited and influenced by perceptual weighting of a leading finger.

The paper investigates how neural markers like the P3 and readiness potential track decision-making under varying evidence strength and shows that urgency and competition between choice accumulators explain the results.

The paper shows that sustained mechanical pressure inhibits tingling sensations induced by sanshool on the lips, indicating interaction between somatosensory submodalities.

The paper investigates how lateral inhibition in somatosensory processing changes based on whether participants compare or combine tactile stimuli, finding reduced suppression during combination.

The study investigates whether the Readiness Potential (RP) reflects decision uncertainty or internal action source, finding that RP amplitude correlates with internal decision source rather than uncertainty.

This study investigates how motor and tactile information interact in spatial perception through robot-mediated self-touch experiments, finding stronger integration during active movements.

This study investigates the neural correlates of evidence accumulation and changes of mind using EEG, finding that the P3 component tracks a decision variable and predicts changes of mind.

This study investigates the neural correlate of voluntary action timing, finding that the Readiness Potential (RP) increases with learning, indicating it reflects planning rather than freedom from external constraints.

The paper uses EEG frequency tagging to show that the brain preferentially entrains to collective movement of human agents, enhancing responses to synchronous motion over individual or image-based motion.

The paper investigates how intentional strength and motor costs influence changes of intention during decision-making, showing that stronger intentions reduce changes of intention, while higher motor costs increase them.

This study investigates how prospective and retrospective factors influence awareness of motor intention during voluntary action using real-time EEG and brain-computer interface cues.

The paper tests whether learning bias stems from positivity or choice-confirmation, finding stronger positive prediction errors in free-choice conditions.

The paper investigates metacognitive bias in estimating the success of voluntary actions versus passive movements and visual signals, finding overconfidence in both active and passive conditions.

The paper investigates neural precursors of self-initiated actions by comparing EEG variability before self-initiated and externally-triggered actions, finding stronger convergence during deliberative planning.

The paper investigates the neural processes preceding self-initiated actions by comparing EEG variability in self-initiated versus externally-triggered skip responses, finding reduced neural noise prior to self-initiated actions.