Low-intensity focused ultrasound is described as a noninvasive neuromodulation technology for neurological regulation. The abstract frames it as precise and broadly neuromodulatory.
First-pass extracted concept
low-intensity focused ultrasound neuromodulation
Aliases
low-intensity focused ultrasound, ultrasound neuromodulation
Extracted Explainers
What the tool is doing
What problem it solves
Evidence Snippets
MR-guided focused ultrasound has been explored in the modality of low-intensity ultrasound, which allows mechanical effects on brain tissue, primarily transient blood-brain barrier opening and neuromodulation.
Low-intensity focused ultrasound represents groundbreaking medical advancements, characterized by its noninvasive feature, safety, precision, and broad neuromodulatory capabilities.
Supporting Sources
Linked Claims
Low-intensity MR-guided focused ultrasound can produce mechanical effects on brain tissue including transient blood-brain barrier opening and neuromodulation.
MR-guided focused ultrasound has been explored in the modality of low-intensity ultrasound, which allows mechanical effects on brain tissue, primarily transient blood-brain barrier opening and neuromodulation
Ultrasound neuromodulation has been gradually applied to treating central nervous system diseases, especially stroke.
ultrasound neuromodulation has been gradually applied in treating central nervous system diseases, especially stroke
Low-intensity focused ultrasound is described as noninvasive, safe, precise, and broadly capable of neuromodulation.
Low-intensity focused ultrasound represents groundbreaking medical advancements, characterized by its noninvasive feature, safety, precision, and broad neuromodulatory capabilities.
The precise biophysical mechanism of ultrasound neuromodulation remains insufficiently understood.
the precise biophysical mechanism of ultrasound neuromodulation still need further exploration
Ultrasound neuromodulation is stated to operate through mechanisms including acoustic radiation force, cavitation, and thermal effects.
This technology operates through mechanisms, for example, acoustic radiation force, cavitation, and thermal effects.