Anuj Kapadia

Professor Anuj Kapadia emphasizes the importance of advancing medical imaging technologies to improve diagnostic accuracy and patient care. As an Adjunct Associate Professor in the Department of Radiology and Physics at Duke University, he is at the forefront of research in neutron stimulated emission computed tomography (NSECT). This innovative imaging modality leverages inelastic scattering through fast neutrons to produce detailed element composition images of the human body, offering potential breakthroughs in non-invasive diagnostics. Professor Kapadia's work is characterized by a deep commitment to enhancing the precision and efficacy of medical imaging. His research extensively utilizes Monte-Carlo simulations in GEANT4, a powerful tool for modeling the interactions of particles with matter. Through these simulations, he investigates the impact of various acquisition parameters on NSECT images, aiming to optimize the technology for clinical use. In addition to his pioneering work on NSECT, Professor Kapadia has contributed significantly to the field through his studies on X-ray fan beam coded aperture transmission and diffraction imaging. His research in this area explores novel imaging techniques that could revolutionize how medical professionals visualize and diagnose complex conditions. His scholarly contributions include a range of publications that delve into critical aspects of medical imaging. Among these are papers comparing surrogates for characterizing CT radiation risk, which are vital for ensuring patient safety in diagnostic procedures. Furthermore, he has developed a GPU-accelerated framework for estimating scanner-specific scatter in CT, facilitating more accurate virtual imaging trials and enhancing the reliability of imaging technologies. Professor Kapadia's work is driven by a passion for innovation and a dedication to improving healthcare outcomes. His research not only pushes the boundaries of what is possible in medical imaging but also lays the groundwork for future advancements that could transform patient diagnosis and treatment. Through his efforts, he continues to inspire the next generation of researchers and clinicians in the field of radiology and medical physics.