Advanced Biomedical Imaging: Ultrasound, X-ray, and PET

This module introduces the importance and essential elements of bio-imaging. Students will learn about the fundamental concepts that characterize the quality of imaging techniques, including Signal-to-Noise Ratio (SNR) and Contrast-to-Noise Ratio (CNR).

This module covers ultrasound imaging principles and introduces ionizing radiation and its generation. Students will learn the physics behind ultrasound imaging and the basics of ionizing radiation used in medical imaging.

This module focuses on X-ray imaging, including the interaction of photons with living tissue and the principles of radioprotection. Students will understand the mechanisms of X-ray image formation and safety considerations in medical imaging.

This module covers the principles of Computed Tomography (CT), explaining how projections are converted into images. Students will learn about CT image reconstruction techniques and their applications in medical diagnosis.

This module introduces emission tomography, covering topics such as tracers, X-ray detection, and the scintillation principle. Students will learn how radioactive tracers are used to create functional images of the body.

This module focuses on Positron Emission Tomography (PET), explaining how anti-matter annihilation is used for imaging. Students will learn about the principles of PET, its applications, and how it differs from other imaging modalities.

This final module covers tracer kinetics and the modeling of imaging data. Students will learn how to analyze and interpret data from tracer-based imaging techniques, understanding the dynamic processes involved in these studies.