Kyle Lafata
Overview:
Kyle Lafata is an Assistant Professor of Radiology, Radiation Oncology, and Electrical & Computer Engineering at Duke University. As an imaging physicist and data scientist, Dr. Lafata’s research interests are in image-based phenotyping and computational biomarkers. His dissertation work focused on nature-inspired computational methods and soft-computing paradigms, including the applied analysis of stochastic differential equations, self-organization, and quantum machine learning (i.e., an emerging branch of research that explores the methodological and structural similarities between quantum systems and learning systems). He has broad expertise in imaging science, digital pathology, computer vision, feature engineering, and applied mathematics.
The Lafata Laboratory focuses on multi-scale imaging biomarkers. They study the imaging phenotype across multiple physical length-scales, including radiological (i.e., ~10-3 m), pathological (i.e., ~10-6 m), and molecular (i.e., ~10-9 m) domains. To accomplish this, the lab develops mathematical methods, computational imaging techniques, and measurement tools to characterize and quantify the appearance and behavior of disease. This technology is applied to interrogate underlying biology, characterize tissue microenvironments, diagnose disease, predict disease progression, quantify treatment response, and enable personalized therapy.
Positions:
Assistant Professor of Radiation Oncology
Assistant Professor in Radiology
Assistant Professor in the Department of Electrical and Computer Engineering
Member of the Duke Cancer Institute
Education:
Ph.D. 2018
C. 2018
Postdoctoral Associate, Radiation Oncology/Radiation Physics Division
Grants:
Targeting the B Cell Response to Treat Antibody-Mediated Rejection
Computational Pathology of Proteinuric Diseases
Publications:
Effect of Lung SBRT Fractionation On Feature Variability of Longitudinal Cone-Beam CT Radiomics
Biologically Guided Deep Learning for Post-Radiation PET Image Outcome Prediction: A Feasibility Study of Oropharyngeal Cancer Application
Sensitivity of Radiomic Features to Acquisition Noise and Respiratory Motion
A Radiomics-Boosted Deep Learning Model for COVID-19 and Non-COVID-19 Pneumonia Detection Using Chest X-Ray Image
Sensitivity of Radiomic Features to Image Noise and Respiratory Motion
