Transcranial Magnetic Stimulation Studies

This study investigates how tACS bursts at different frequencies affect neural oscillations and behavior during a visual task, finding frequency-specific changes in oscillation power, coherence, and complexity metrics.

The paper evaluates subject exclusion criteria in a TMS study and finds that their exclusion did not reduce false positives, suggesting TMS to DLPFC impairs metacognition.

The paper proposes a model explaining how TMS effects on behavior depend on stimulation intensity and neural excitability, showing how these factors can reverse adaptation effects.

This study investigates how the spectral features of TEPs from M1 TMS depend on MEP amplitude, finding a late ERD linked to MEP strength.

The paper reviews tACS mechanisms and protocols to clarify best practices for research applications.

This paper investigates the role of ipsilateral motor areas in motor learning using bihemispheric tDCS and fMRI, finding that stimulation of both hemispheres enhances performance and plasticity.

This study shows that slow oscillatory transcranial direct current stimulation during naps increases sleep oscillations and their synchronization, improving memory in mild cognitive impairment patients.

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

This study shows that repetitive transcranial magnetic stimulation (rTMS) increases phase-amplitude coupling (PAC) in EEG signals, consistent with a neural mass model prediction.

This study investigates whether event-related beta tACS can modulate episodic memory formation and motor cortex excitability but finds no significant effects.

The paper assesses the reliability of neural plasticity changes induced by PAS at the individual level and finds that 40-50 MEPs are needed to reliably detect individual responsiveness.

This study examines how iTBS and cTBS affect cortical reactivity and inhibition in the prefrontal cortex using TMS-EEG, finding increased N120 amplitudes and theta oscillations with iTBS.

This study investigates how subthreshold TMS affects corticospinal volleys with different conduction times, revealing complex interactions beyond local inhibitory connections.