This module focuses on deep learning approaches for medical imaging, highlighting clinical use cases across radiology, pathology, pulmonology, and other specialties. You will start by examining common imaging modalities and preprocessing requirements that ensure consistent, meaningful inputs for modeling. You will then learn about convolutional neural networks and how spatial hierarchies and receptive fields allow deep models to recognize subtle clinical patterns in X-rays, CT scans, and other imaging studies. You will explore modern architectures used widely in clinical AI systems, including residual networks and segmentation models. Additionally, you will learn about advanced imaging tasks such as localization, detection, and segmentation, along with explainability techniques that give clinicians insight into how these models make decisions. Through hands-on labs, you will apply these methods directly to imaging data and evaluate their clinical relevance.

Clinical notes contain rich contextual information not captured in structured EHR fields. This module explores methods for extracting meaning from unstructured clinical text, beginning with preprocessing techniques tailored to medical language, such as handling abbreviations, misspellings, and protected health information. You will examine classical and modern representation techniques, including term-frequency methods, embeddings, and transformer-based representations. The module then progresses to advanced NLP applications, including entity extraction, concept linking, summarization, and the design of clinical conversational agents. Special emphasis is placed on the safe and responsible use of large language models in regulated settings. You will learn about building classification and extraction models and design safe prompting strategies for simple clinical chatbot behavior.

The final module integrates the advanced analytics techniques studied throughout the course. You will build and evaluate a binary disease prediction model using structured clinical data. You will implement and compare two different modeling approaches to understand how model choice and complexity influence prediction outcomes on the same clinical dataset. The course concludes with a summary and a final exam, connecting these advanced methods to broader healthcare AI initiatives.