Focused ultrasound (FUS) is a disruptive medical technology, and its implementation in the
clinic represents the culmination of decades of research. Lying at the convergence of …

Transcranial ultrasound stimulation (TUS) holds great potential as a tool to alter neural
circuits non-invasively in both animals and humans. In contrast to established non-invasive …

Ultrasonic neuromodulation is a rapidly growing field, in which low-intensity ultrasound (US)
is delivered to nervous system tissue, resulting in transient modulation of neural activity. This …

Visualizing and perturbing neural activity on a brain-wide scale in model animals and
humans is a major goal of neuroscience technology development. Established electrical and …

Ultrasonic neuromodulation has the unique potential to provide non-invasive control of
neural activity in deep brain regions with high spatial precision and without chemical or …

The causal role of an area within a neural network can be determined by interfering with its
activity and measuring the impact. Many current reversible manipulation techniques have …

Transcranial low-intensity ultrasound is a promising neuromodulation modality, with the
advantages of noninvasiveness, deep penetration, and high spatiotemporal accuracy …

Background There is an emerging need for noninvasive neuromodulation techniques to
improve patient outcomes while minimizing adverse events and morbidity. Low-intensity …

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 …

Ultrasound (US) can noninvasively activate intact brain circuits, making it a promising
neuromodulation technique. However, little is known about the underlying mechanism …