Research Interests
Our research is dedicated to advancing cutting-edge neurophotonics and translational biophotonics technologies, which bridge engineering, fundamental research, and medical applications. This interdisciplinary approach integrates diverse fields, including optics, electrical engineering, micro-nano technology, biology, and clinical medicine. Our primary goal is to improve early disease detection, monitor treatment efficacy, and guide medical interventions. These technologies also pave the way for fundamental research, delving into disease mechanisms, brain function, biomarker discovery, and integrated diagnostics and therapy (theranostics). Our specific areas of focus include:
Technologies
- Optical Coherence Tomography (OCT)
- Two-photon Fiberscopy/Endomicroscopy
- Multimodal Imaging
- Mass Spectrometry Imaging
- AI-assisted Image Acquisition and Analysis
Disease Diagnosis & Intervention Guidance
- Label-free and Noninvasive Optical Histology in vivo
- Intra-operative Guidance
- GI Tract (dysplasia and inflammation)
- Airway (cancer and COPD)
- Pre-term Birth Risk Assessment
Basic Research
- Functional Brain Imaging in Freely-behaving Animals
Titles
- Professor, Biomedical Engineering
- Professor, Electrical & Computer Engineering
- Professor, Oncology
Affiliated Centers & Institutes
Education
- PhD, Physics and Biomedical Optics, University of Pennsylvania, 1998
- BS, Physics, University of Science and Technology of China, 1990
Recent Highlights
-
April 28, 2022Johns Hopkins biomedical engineers have developed an artificial intelligence (AI) training strategy to capture images of mouse brain cells in...
-
March 10, 2021Two researchers with ties to Hopkins BME earn grants through Bisciotti Foundation Translational FundTwo Johns Hopkins professors with ties to the Department of Biomedical Engineering have received grants for their research through the Bisciotti Foundation Translational Fund.
-
February 8, 2018Johns Hopkins researchers report they have developed two new endoscopic probes that significantly sharpen the technology’s imaging resolution and permit direct observation of fine tissue structures and cell activity in small organs in sheep, rats, and mice.
Media
One of our group’s projects was selected as a top research highlight in 2015 (beginning at 2:22).