Apply deep learning to radiology, pathology and diagnostic imaging.
AI & Machine Learning in Healthcare
Module-by-module breakdown of AI in Medical Imaging and Diagnostics, from foundations to a certified capstone project.
Imaging Physics
โข Acquisition physics of CT, MR, ultrasound and radiography, and the artefacts each produces
โข DICOM structure, windowing, spacing and the metadata models silently depend on
โข Reconstruction and dose settings as hidden covariates across sites
Preparation
โข Annotation protocols and inter-reader variability as the real performance ceiling
โข Weak labels from reports, and the noise that introduces
โข Patient-level splitting to prevent the same patient appearing in train and test
Models
โข U-Net style segmentation and nnU-Net as a strong default baseline
โข Detection for lesions and nodules, and evaluation with FROC rather than accuracy
โข Transfer learning from natural images and where it stops helping
Evaluation
โข Sensitivity, specificity and the effect of disease prevalence on predictive value
โข Reader studies, standalone versus assisted performance
โข External validation and the scanner-generalisation failures that recur in the literature
Clinical Use
โข Regulatory classification and the evidence expected for imaging AI
โข PACS integration, worklist prioritisation and turnaround-time effects
โข Monitoring after deployment as scanners, protocols and case mix change
e-Certificate and e-Marksheet issued on successful completion.