Huiliang Wang

This paper demonstrates the stabilization of gas in aqueous environments using metal-organic frameworks to enable persistent acoustic transduction for long-term ultrasound-biological interfacing.

This paper develops ultrasound-responsive extracellular vesicles for targeted drug delivery to the nervous system, demonstrating controlled release and pain modulation in rats.

This study uses ultrasound to modulate the human hippocampus and shows it affects motor skill learning by altering the balance between practice and rest.

This paper develops multicolored mechanoluminescent nanoparticles that enable non-invasive neuromodulation using ultrasound and light, achieving bidirectional control of neurons.

This paper introduces a wearable patch for non-invasive ultrasound neuromodulation and sleep recording, showing increased REM sleep duration and reduced latency in human subjects.

This paper introduces a post-processing framework to improve real-time sleep staging reliability in neuromodulation by combining smoothing techniques and control logic.

This paper develops a machine learning-guided hydrogen-bonded organic framework for ultrasound-triggered pain therapy, showing effective long-term analgesia in a rat model.

This paper develops a wearable ultrasound device with bioadhesive hydrogel for long-term neuromodulation, demonstrating its effectiveness in suppressing somatosensory responses over 28 days.

This paper introduces a stretchable, hair-compatible EEG system that maintains signal integrity over long-term use and validates its performance in brain-computer interface tasks.

This paper introduces ultrasound programmable hydrogen-bonded organic frameworks (HOFs) for targeted drug release and neural circuit modulation in deep brain regions.

This paper develops a non-invasive optogenetics method using ultrasound-triggered nanotransducers to modulate Parkinsonian rats' neurons and improve movement dysfunction.