I'm a data scientist in the Imaging Research Center, Department of Radiology at Cincinnati Children's. My research area focuses on artificial intelligence (AI) technologies in medical imaging. I have applied my expertise to various disease conditions, including neurodevelopment deficits in newborn infants, attention deficit hyperactivity disorder (ADHD), autism spectrum disorder and liver diseases.
During my education to obtain my PhD, I had a chance to work as a part-time research assistant in the Department of Radiology at Cincinnati Children's. As I learned more about medical images, I realized that it would be more meaningful to apply my computer science expertise to the healthcare field. This decision led to my career in medical imaging. My goal is to facilitate the clinical translation of AI technologies to improve the healthcare quality and safety of pediatric patients nationally and globally.
I develop advanced machine learning and deep learning approaches for medical images to aid radiologists and pediatricians in various clinical applications. I also created a novel transfer learning approach for deep learning models to understand human brain networks better. I proposed the first deep learning model to stratify the severity of liver stiffening using T2-weighted abdominal magnetic resonance images (MRI).
Specifically, my research experience includes image reconstruction and denoising, image segmentation, image biomarker identification, image-based disease diagnosis, prognosis and clinical outcome predictions.
I have been a researcher for over 15 years and began my career at Cincinnati Children's in 2013. I am honored to have received the Walter E. Berdon Award for best clinical research paper from the Pediatric Radiology journal (2021). Our team's deep learning study on ADHD was the featured publication by the Radiological Society of North America (2019).
When I'm not working, I enjoy reading.
BS: Electrical Engineering, Northeastern University, Liaoning, China, 2004.
MS: Electrical Engineering, Northeastern University, Liaoning, China, 2007.
PhD: Computer Science and Engineering, University of Cincinnati, OH, 2013.
Post-Doc: Biomedical Informatics, Cincinnati Children's Hospital Medical Center, Cincinnati, OH, 2016.
Liver diseases; neonatology
Machine learning; deep learning; medical image analysis
Altered neurobehavioral white matter integrity in preterm children: A confounding-controlled analysis using the adolescent brain and cognitive development (ABCD) study. Neuroimage. 2025; 323:121600.
Development and Validation of a Modality-Invariant 3D Swin U-Net Transformer for Liver and Spleen Segmentation on Multi-Site Clinical Bi-parametric MR Images. 2025; 38:2688-2699.
RadCLIP: Enhancing Radiologic Image Analysis Through Contrastive Language-Image Pretraining. Journal of Central South University. 2025; 36:17613-17622.
T2-weighted MRI radiomics for the prediction of pediatric and young adult rhabdomyosarcoma alveolar subtype and distant metastasis: a pilot study. Pediatric Radiology: roentgenology, nuclear medicine, ultrasonics, CT, MRI. 2025; 55:1149-1161.
Maternal Hypertension and Adverse Neurodevelopment in a Cohort of Preterm Infants. JAMA Network Open. 2025; 8:e257788.
Large Language Models can Help with Biostatistics and Coding Needed in Radiology Research. Academic Radiology. 2025; 32:604-611.
MRI and Artificial Intelligence for Early Prediction of Neurodevelopmental Deficits in Very Preterm Infants. Handbook of the Biology and Pathology of Mental Disorders. : Springer Nature; Springer Nature; 2025.
Prenatal tobacco smoke exposure and risk for cognitive delays in infants born very premature. Scientific Reports. 2024; 14:1397.
DFC-Igloo: A dynamic functional connectome learning framework for identifying neurodevelopmental biomarkers in very preterm infants. Computer Methods and Programs in Biomedicine. 2024; 257:108479.
Joint self-supervised and supervised contrastive learning for multimodal MRI data: Towards predicting abnormal neurodevelopment. Artificial Intelligence in Medicine. 2024; 157:102993.