Courses

This course covers fundamental aspects of magnetic resonance imaging systems with an emphasis on theory, methodology, and instrumentation. Key principles are derived from the Bloch equations and Maxwell’s equations. Topics include pulse sequences, signal acquisition, spatial encoding in k-space, image reconstruction, and tissue contrast. Major components of an MRI scanner are examined, including the static magnet, gradient and shim coils, transmit and receive chains, and radiofrequency coils and arrays. Learning outcomes are assessed by solving problem sets integrating theory with practical applications. As a final research project, students survey recent literature to identify a specialized topic of interest and deliver a peer-evaluated presentation to the class.

This online course provides an in-depth exploration of techniques used to characterize the microstructure of semiconductors. Students will learn the fundamental principles of microstructural analysis, including electron microscopy, X-ray diffraction, and spectroscopic techniques, with a focus on their applications in semiconductor materials. The course emphasizes the relationship between processing, microstructure, and electronic properties, preparing students for research and industry applications in microelectronics and semiconductor engineering.