Nanoscale bioparticle separation
Acoustic strategies for high-purity, label-free isolation of viruses and small extracellular vesicles.
Acoustofluidics · Biomedical Microsystems
I develop acoustic and microfluidic technologies to isolate, manipulate, and analyze nanoscale bioparticles—from viruses to extracellular vesicles—with an eye toward accessible, high-performance diagnostic systems.
Sound · Flow · LifeA research vision in formation
*Google Scholar metrics updated August 2026; i10-index: 53.
Research directions
My work connects fundamental wave physics with translational biomedical engineering.
Acoustic strategies for high-purity, label-free isolation of viruses and small extracellular vesicles.
Sample-to-answer acoustofluidic platforms that unite preparation, enrichment, and multimodal detection.
Wavefront control, topological acoustics, focusing, absorption, and programmable acoustic structures.
Looking ahead
I envision a collaborative research program where acoustics, microfluidics, nanotechnology, and clinical insight converge. The goal: tools that reveal biological information earlier, handle samples more gently, and move from elegant physics to meaningful healthcare impact.
Selected work
Nature Protocols · 21, 1–22
Science Advances · 11, eaeb0879
Science Advances · 11, eadt5464
ACS Nano · 18, 22596–22607
Advanced Materials · 30, 1805002
A curated selection. View the complete and current record on Google Scholar ↗
Academic journey
Department of Mechanical Engineering and Materials Science · Advisor: Prof. Tony Jun Huang
Dissertation: Acoustic Separation of Viruses and Small Extracellular Vesicles for Diagnostic Applications
Jiangsu Province Outstanding Master's Thesis
Teacher education track
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