Monitoring
High-speed receive paths and algorithms for timing and locating inertial cavitation during treatment.
Biomedical Engineering · University of Michigan
Ph.D. candidate in the Histotripsy Group. I work on real-time monitoring and localization of cavitation, aberration correction, and the signal-processing systems that make therapeutic ultrasound more precise in vivo.
High-speed receive paths and algorithms for timing and locating inertial cavitation during treatment.
Using acoustic emissions and array measurements to correct phase errors through bone and heterogeneous tissue.
From SoC ultrasound front-ends to neuronavigation-guided histotripsy workflows in the lab.