Andrew Strohman

This paper develops a double-blind coupling device for low-intensity focused ultrasound neuromodulation, demonstrating acoustic transparency and energy control.

The paper identifies a convergent brain circuit modulated by neuromodulation techniques that reduces autonomic arousal in various conditions.

This study shows that low-intensity focused ultrasound at 13 W/cm2 reduces dopamine release in the nucleus accumbens core by ~50% for up to 2 hours without causing tissue damage.

This study examines how different parameters of low-intensity focused ultrasound affect human brain activity, finding inhibition in some cases and no excitation.

This study uses LIFU to target brain regions involved in the HEP and finds that PI modulation decreases HEP amplitudes.

This study investigates the effects of low-intensity focused ultrasound on pain measures in specific brain regions and finds that posterior insula and dorsal anterior cingulate cortex modulation reduces pain differently.

This study uses low-intensity focused ultrasound to non-invasively modulate the dorsal anterior cingulate cortex, reducing pain perception and altering cardiovascular responses to heat pain.

This study uses low-intensity focused ultrasound to non-invasively target specific sub-regions of the human insula, showing differential effects on pain perception and heart-rate variability.