“Intelligent Medical Image Analysis and Processing” is an advanced academic course designed to equip students with the knowledge and skills necessary to analyze and process medical images using cutting-edge techniques. The course covers a range of topics, including image reconstruction, enhancement, segmentation, and classification, with a strong emphasis on the application of machine learning and artificial intelligence. Students will learn to develop and implement algorithms that can automatically detect and diagnose medical conditions from various imaging modalities such as MRI, CT, and ultrasound. Through hands-on projects and case studies, participants will gain practical experience in using state-of-the-art tools and technologies to solve real-world medical imaging challenges, ultimately preparing them for careers in healthcare technology and research. [Details and Syllabus]

Will offer: S2025.

Deep learning is a subfield of machine learning that focuses on training neural networks with multiple layers (hence the term “deep”). These networks learn to automatically discover complex patterns and representations from data. Unlike traditional machine learning, where feature engineering is crucial, deep learning models can learn relevant features directly from raw data. Applications of deep learning span various domains, including computer vision, natural language processing, speech recognition, and recommendation systems. By leveraging large datasets and powerful computational resources, deep learning has achieved remarkable breakthroughs, such as image classification, language translation, and autonomous driving. [Details and Syllabus]

Taught terms: F2018, F2019, F2020, F2021, F2022, F2023 and F2024.

Medical image processing and analysis involves applying advanced computational techniques to medical images, such as X-rays, MRIs, and CT scans. Through sophisticated algorithms, these images are enhanced, segmented, quantified, and registered to extract and relate meaningful information. Researchers and clinicians use these methods for tasks like tumor detection, organ segmentation, multi-modal registration, and disease diagnosis. By harnessing the power of image processing, we unlock valuable insights that aid in patient care, treatment planning, and medical research. [Details and Syllabus]

Taught terms: S2005, S2006, S2007, S2008, S2009, S2010, S2011, S2012, S2013, S2014, S2015, S2016, S2017, S2018, S2019, S2020, S2021, S2022, S2023, and S2024.

Digital image processing involves manipulating digital images using computer algorithms. It encompasses tasks such as enhancing image quality, extracting meaningful information, segmentation (partitions into meaningful discrete groups of pixels), compression, and automating image-based processes. The fundamental steps in digital image processing include acquisition, enhancement, restoration, segmentation, representation, and analysis. [Details and Syllabus]

Taught terms: S2005, S2006, S2007, S2008, S2009, S2010, S2011, S2012, S2013, S2014, S2015, S2017, S2018, S2022, and S2024.

The biomedical seminar course is designed to equip students with essential skills for effective academic and professional communication. In such a course, participants learn about presentation techniques, writing strategies, and research skills. Additionally, they delve into critical aspects of research ethics, academic integrity,  honest behavior, and plagiarism prevention. [Details and Syllabus]

Taught terms: F2005, S2010, S2017, and S2024.

Computational genomics is a dynamic field that merges the power of computational science with genomic research to analyze and interpret complex biological data. It encompasses the use of computational strategies to understand the structure, function, and evolution of genomes. By leveraging statistical models, algorithms, and both DNA and RNA sequencing data, computational genomics provides insights into the molecular mechanisms of genes and their regulatory networks. This interdisciplinary approach has revolutionized our ability to predict gene function, understand genetic variations, and explore the vast biological datasets generated by high-throughput genomic technologies. As a result, computational genomics is pivotal in advancing personalized medicine, improving crop yields, and unraveling the mysteries of evolutionary biology. [Details and Syllabus]

Taught terms (formerly): F2015 (Joint with Prof. Khalaj).

Statistical pattern recognition is a powerful analytical approach that leverages statistics to uncover patterns within data. It involves extracting meaningful insights from observations and making predictions based on these patterns. Key components of the process include feature extraction, classification, and decision-making. By applying statistical models and algorithms, we can identify hidden regularities in large datasets. [Details and Syllabus]

Taught terms (formerly): F2004, F2005, F2006, F2007, F2008, F2009, F2010, F2011, F2012, F2013, F2014, F2015, F2016, and F2017.