In a mouse model of Parkinson's disease, deep brain stimulation of the subthalamic nucleus disrupts movement-related neural activity in parallel with relieving motor symptoms.

Direct in-vivo measurements in the human brain test validity of detailed computational models of trancranial electric stimulation and show that electric fields in the brain are weaker than currently assumed.

Residual activity from previous trials in a biophysical decision network model causes biases in choice behavior such that a previous response is more likely to be repeated.

Lead-OR visualizes results derived from microelectrode recordings in anatomical space, together with information derived from patient-specific MRI data, as well as high-resolution atlas resources during deep brain stimulation surgery.

Electrical stimulation at the lateral habenula causes an instantaneous remission of depressive symptoms in two rat models, with more medial stimulation sites exhibiting greater antidepressant effects than more lateral stimulation sites, as revealed by functional MRI studies.

Forniceal deep brain stimulation is a promising treatment for several neuropsychiatric disorders as it upregulates synaptic and neurogenesis-associated genes, normalizes genes misregulated in Rett syndrome mice, and regulates genes altered in intellectual disability and major depression.

Deep brain stimulation can selectively modify neural activity within the subthalamic nucleus to modify decisions under uncertainty in human subjects.

Genetic, pharmacologic, and optogenetic manipulations demonstrate that Purkinje cells can trigger and propagate the signals for tremor.

Mouse brain neurons response to transcranial ultrasound at the energy level of 5 mW/cm² and repeated stimulations lead to neurogenesis while ASIC1a is required both in vitro and in vivo as one of the mechanoreceptors.

Externally induced synchronous/desynchronous oscillations during working memory performance reveal distinct patterns of brain activity and connectivity across large-scale networks recruited by the task.