Morteza Mohammadjavadi

This study shows that ultrasound-induced tissue displacement predicts functional neuromodulation in the human brain during transcranial ultrasound stimulation.

This paper characterizes the temporal dynamics of acoustic radiation force in human brain tissue using MR-ARFI, finding that stiffer tissue exhibits shorter time constants and reduced displacement.

This study investigates the effects of transcranial focused ultrasound on visual perception and SSVEP in humans but finds no significant impact despite accurate targeting.

This paper demonstrates that noninvasive ultrasound-guided focused ultrasound can selectively and reversibly inhibit peripheral nociceptive fibers and prevent acute pain in a rat model.

This study optimizes MR-ARFI for human transcranial focused ultrasound to reduce exposure and improve motion robustness, demonstrating its potential for guiding neural therapeutics.

This study uses MR-guided TUS to modulate visual evoked potentials and cortical oscillations in a sheep model by targeting the lateral geniculate nucleus.

This study shows that motor responses from ultrasound neuromodulation are not caused by peripheral auditory pathway activation, using deaf mice and modified ultrasound stimuli.