Transcranial Magnetic Stimulation Studies

This study examines how tACS to secondary motor areas affects cortical oscillations in stroke patients, finding weak modulations in task-related connectivity metrics.

This study optimizes a grid-based TMS mapping algorithm to improve the accuracy of detecting cortical muscle representation changes over time.

This study shows tACS entrains alpha oscillations by preferentially synchronizing fast-spiking cortical neurons to the stimulation waveform in ferrets.

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 investigates whether anodal tDCS over the left DLPFC improves proprioception by reducing movement variability in a target task without vision.

The paper develops a computational pipeline to analyze subject-specific lobular electric field distribution during cerebellar transcranial direct current stimulation (ctDCS) using MRI-guided head modeling.

This study shows that multi-frequency tACS has lasting effects on neural synchrony and audiovisual responses in anesthetized ferrets.

This study applies dual-site TACS to auditory and motor cortex to test if theta phase coupling affects auditory-motor mapping, but finds no significant effect on verbal repetition performance.

This study uses tDCS and fMRI to examine how dyslexia affects phonological processing in speech production and perception tasks, finding altered responses in the left inferior frontal gyrus compared to healthy speakers.

This study tests if anodal tDCS over hMT+ improves visual motion direction discrimination learning but finds no significant enhancement compared to sham stimulation.

The paper develops a TMS-coil modeling approach using distributed current filaments and the fast multipole method to rapidly and accurately evaluate coil designs and arrays.

This study measures vertical electric fields in rat brains under different electrode placements to understand tES effects.

This paper models how tDCS induces network remodeling through synaptic plasticity, showing that focal and repetitive stimulation enhances cell assembly formation.

This study investigates whether preparatory inhibition aids action selection by comparing MEP suppression in choice and simple RT tasks.

This study uses combined fMRI and TMS to map causal brain networks involving the sgACC and amygdala, showing individualized targeting captures causal circuitry in humans.

This study uses tACS to manipulate alpha oscillations and finds it increases response bias in a somatosensory detection task without affecting sensitivity.

The paper investigates how signal processing pipelines affect phase dependency estimation in TMS-EEG studies and recommends best practices to improve reliability.

This paper demonstrates a method to volitionally up- and downregulate cortical excitability using neurofeedback, showing changes in brain state and oscillations.

This study shows that transcranial direct current stimulation of the right inferior frontal gyrus modulates brain networks differently based on brain state and polarity.

This study shows that tACS can induce long-term changes in neural connectivity and reduce anxiety, while having transient effects on local oscillations.

This study shows that repetitive transcranial magnetic stimulation (rTMS) can entrain intrinsic cortical oscillations in a frequency- and area-specific manner, with effects propagating to other brain regions.

This study shows that TMS-evoked potentials (TEPs) include non-transcranial components from peripheral sensory and auditory processing, complicating interpretations of TMS-EEG studies.

The paper models TMS and TES electric fields in mouse, monkey, and human brains to compare induced field strengths across species.

This paper shows that targeting individual-specific brain hubs with non-invasive brain stimulation disrupts cognition more than non-hub areas.

This study uses TMS-EEG to examine dmPFC excitability during fear processing and links it to structural brain properties.

This study shows low-intensity magnetic stimulation repairs neural circuits via cryptochrome-dependent mechanisms, suggesting a new framework for targeted neurological treatments.

The paper uses EEG-triggered TMS to show that motor evoked potentials are more modulated by micro-rhythm phase at weaker stimulation intensities, enabling better differentiation of brain states.

This study investigates how expectations influence the effects of transcranial direct current stimulation (tDCS) on cognitive performance and experience.

This study investigates whether tDCS over the frontal eye field affects saccade latency or accuracy, finding no significant effects.