Ultrasound has been used to non-invasively manipulate neuronal functions in humans and
other animals. However, this approach is limited as it has been challenging to target specific …

Noninvasive control of neuronal activity in the deep brain can be illuminating for probing
brain function and treating dysfunctions. Here, we present a sonogenetic approach for …

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 …

Recently developed brain stimulation techniques have significantly advanced our ability to
manipulate the brain's function. However, stimulating specific neurons in a desired region …

Ultrasound has received widespread attention as an emerging technology for targeted, non-
invasive neuromodulation based on its ability to evoke electrophysiological and motor …

Ultrasound is gaining traction as a neuromodulation method due to its ability to remotely and
non-invasively modulate neuronal activity with millimeter precision. However, there is little …

Transcranial focused ultrasound (US) has been demonstrated to stimulate neurons in
animals and humans, but the mechanism of this effect is unknown. It has been hypothesized …

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 …

Low-intensity, low-frequency ultrasound (LILFU) is the next-generation, non-invasive brain
stimulation technology for treating various neurological and psychiatric disorders. However …

Biomolecules that respond to different external stimuli enable the remote control of
genetically modified cells. We report herein a sonogenetic approach that can manipulate …