Background Transcranial ultrasound stimulation (TUS) is gaining traction as a safe and non-
invasive technique in human studies. There has been a rapid increase in TUS human …

Treating the brain with focused ultrasound (FUS) at low intensities elicits diverse responses
in neurons, astroglia, and the extracellular matrix. In combination with intravenously injected …

Objective The neuromodulatory effects of focused ultrasound (FUS) have been
demonstrated in animal epilepsy models; however, the safety and efficacy of FUS in humans …

Non-invasive neuromodulation technology is important for the treatment of brain diseases.
The effects of focused ultrasound on neuronal activity have been investigated since the …

Within the last decade, ultrasound has been “rediscovered” as a technique for brain
therapies. Modern technologies allow focusing ultrasound through the human skull for …

Transcranial ultrasound is emerging as a noninvasive tool for targeted treatments of brain
disorders. Transcranial ultrasound has been used for remotely mediated surgeries, transient …

This article describes an emerging non-invasive neuromodulatory technology, called low
intensity focused ultrasound (LIFU). This technology is potentially paradigm shifting as it can …

The effects of transcranial focused ultrasound (FUS) stimulation of the primary
somatosensory cortex and its thalamic projection (ie, ventral posterolateral nucleus) on the …

Advanced physiological aging is associated with impaired cognitive performance and the
inability to induce long-term potentiation (LTP), an electrophysiological correlate of memory …

Low-intensity focused ultrasound provides the means to noninvasively stimulate or release
drugs in specified deep brain targets. However, successful clinical translations require …