Jacek Dmochowski

This study shows that tFUS changes neural time irreversibility independently of response amplitude using stochastic thermodynamics analysis of fiber-photometry data.

This study uses tFUS to modulate sgACC connectivity in healthy adults, showing increased whole-brain connectivity post-treatment and distinct network changes compared to sham.

The paper identifies mechanical artifacts in tFUS-induced LFP signals in anesthetized rats, showing they mimic genuine neural responses and are artifact-driven.

This study examines time-varying neural engagement during music listening using EEG inter-subject correlations, finding significant correlations during musical tension but not at climactic peaks.

This study shows that amplitude-modulated tFUS reduces neuronal firing rate, while continuous-wave tFUS increases it, with effects influenced by baseline brain rhythms.

The paper examines inter-subject correlation (ISC) of EEG and behavioral responses to minimalist music, finding lower ISC for minimalist stimuli compared to popular music.

The paper examines neural responses to natural visual motion in a kart race video game, finding spatial selectivity in neural activity that extends beyond overt attention and varies across brain areas.

This study shows that amplitude-modulated transcranial focused ultrasound (AM-tFUS) differentially affects excitatory and inhibitory neurons in the rat hippocampus based on intensity.

The paper investigates whether visual evoked responses are enhanced during motor tasks, finding no difference between active and sham play but reduced correlation during passive viewing.

This study uses HD-tDCS and mediation analysis to show that mIPS modulation affects online reach correction, providing causal evidence for its role in movement error correction.

This study examines neural correlations during music listening, finding that disrupted musical structures increase time-domain correlations while beat-related frequencies show peak coherence.

This study shows near-infrared light increases brain functional connectivity without causing thermal changes, suggesting a non-thermal mechanism for transcranial photobiomodulation.

This paper derives a method to optimally target brain areas using EEG recordings for transcranial electrical stimulation, showing it works well with realistic models.