Learning Roadmap
How to Become a AI Medical Imaging Analyst
A step-by-step, phase-based learning path from beginner to job-ready AI Medical Imaging Analyst. Estimated completion: 9 months across 6 phases.
Progress saved in your browser — no account needed.
-
Medical Imaging Fundamentals & DICOM Literacy
4 weeksGoals
- Understand imaging modalities (X-ray, CT, MRI, ultrasound, PET) and their clinical use cases
- Navigate and manipulate DICOM files programmatically using pydicom and highdicom
- Use PACS and OHIF Viewer to browse and window medical images
Resources
- Coursera: 'Introduction to Medical Imaging' by Duke University
- pydicom documentation and tutorials
- DICOM is Easy blog series by Innolitics
MilestoneYou can load, visualize, window, and anonymize DICOM datasets and explain the clinical context of at least three imaging modalities.
-
Python for Medical Image Processing
6 weeksGoals
- Build proficiency in NumPy, SciPy, and OpenCV for 2D/3D image manipulation
- Implement image preprocessing pipelines: resampling, normalization, augmentation
- Use SimpleITK and NiBabel for volumetric medical image I/O
Resources
- Medical Image Analysis with Python (SimpleITK tutorials)
- 3D Slicer training datasets and documentation
- Kaggle: RSNA competitions for hands-on practice
MilestoneYou can build a reproducible preprocessing pipeline that ingests raw DICOM volumes and outputs standardized tensors ready for model training.
-
Deep Learning for Medical Image Segmentation & Classification
8 weeksGoals
- Implement U-Net and nnU-Net architectures for organ and lesion segmentation
- Fine-tune pretrained classifiers (ResNet, EfficientNet) on medical imaging tasks
- Use MONAI's transforms, networks, and data loaders for end-to-end training
Resources
- MONAI Bootcamp (free, NVIDIA-sponsored)
- nnU-Net documentation and preconfigured pipelines
- Papers: 'U-Net: Convolutional Networks for Biomedical Image Segmentation'
MilestoneYou can train a segmentation model on a public dataset (e.g., BraTS, MSD) and report Dice scores, Hausdorff distances, and qualitative overlays.
-
Clinical Validation & Regulatory Awareness
6 weeksGoals
- Design a clinical reader study comparing AI-assisted vs. baseline diagnostic performance
- Understand FDA Software as a Medical Device (SaMD) classification and IEC 62304 lifecycle
- Write evaluation reports suitable for regulatory or publication contexts
Resources
- FDA: 'Artificial Intelligence/Machine Learning (AI/ML)-Based Software as a Medical Device Action Plan'
- MICCAI challenge papers for evaluation methodology examples
- FIND (Foundation for Innovative New Diagnostics) regulatory guidance documents
MilestoneYou can design a validation protocol, perform statistical analysis of AI outputs, and document results in a format aligned with regulatory expectations.
-
MLOps, Deployment & Federated Learning for Healthcare
6 weeksGoals
- Containerize a medical imaging inference pipeline with Docker and expose it via FastAPI
- Set up experiment tracking and model registry using Weights & Biases and DVC
- Understand federated learning frameworks (NVIDIA FLARE, Flower) for multi-site model training
Resources
- AWS HealthImaging documentation and tutorials
- NVIDIA FLARE quickstart guides
- MLOps Specialization by Andrew Ng on Coursera
MilestoneYou can deploy a trained medical imaging model as a containerized microservice, track experiments, and articulate how federated learning addresses data privacy in multi-hospital settings.
-
Capstone: End-to-End Clinical AI Imaging Project
6 weeksGoals
- Execute a complete project from dataset curation through model training, validation, and deployment
- Produce a publication-quality report or portfolio case study
- Present results to a mock clinical review board incorporating feedback loops
Resources
- Public datasets: CheXpert, ISIC Skin Lesion, UK Biobank Imaging, TCGA Digital Pathology
- GitHub portfolio template for healthcare AI projects
- MICCAI / SPIE conference proceedings for project framing
MilestoneYou have a fully documented, deployable medical imaging AI project that demonstrates end-to-end competency and can be presented to employers or regulatory reviewers.
Practice Projects
Apply your skills with hands-on projects. Ordered by difficulty.
Chest X-ray Pneumonia Detection with Grad-CAM Explainability
BeginnerTrain a ResNet-based classifier on the CheXpert or ChestX-ray14 dataset to detect pneumonia, then implement Grad-CAM visualizations to show which image regions drive predictions. Build a simple Streamlit app for interactive inference.
Brain Tumor Segmentation with MONAI and nnU-Net
IntermediateUse the BraTS 2021 dataset to train a 3D volumetric segmentation model for glioma sub-region delineation using MONAI's SwinUNETR or nnU-Net. Evaluate with Dice score and Hausdorff distance, and create slice-by-slice qualitative overlays.
Federated Learning Simulation for Multi-Site CT Analysis
AdvancedSimulate a federated learning environment using NVIDIA FLARE or Flower with CT data partitioned across multiple 'sites.' Train a liver lesion segmentation model without centralizing data and compare performance to a centrally trained baseline.
DICOM Processing and PACS Integration Pipeline
IntermediateBuild a robust DICOM ingestion pipeline that reads studies from a PACS simulator, applies preprocessing (resampling, windowing, anonymization), runs inference via a containerized model, and packages results as DICOM-SEG objects pushed back to the archive.
Skin Lesion Classification with Fairness Audit
IntermediateTrain an EfficientNet classifier on the ISIC dataset for melanoma detection and perform a comprehensive fairness audit stratifying by skin tone (Fitzpatrick scale). Report per-group sensitivity, specificity, and AUC, and implement bias mitigation techniques.
Digital Pathology Whole-Slide Image Analysis Pipeline
AdvancedBuild an end-to-end pipeline for processing whole-slide images (WSI) using QuPath and MONAI: tile extraction, stain normalization (Macenko method), patch-level classification with a vision transformer, and aggregation into slide-level predictions with attention heatmaps.
Medical Imaging MLOps Platform with Drift Detection
AdvancedBuild a production-grade MLOps platform using DVC for data versioning, MLflow for experiment tracking, FastAPI for model serving, and implement data drift detection (using Evidently AI) that triggers retraining alerts when input distribution shifts are detected.
Ready to Start Your Journey?
Prep for interviews alongside your learning — it reinforces every concept.