
AI in Radiology: Multimodal Imaging, MedSAM, Vision Transformers and Clinical XAI
Transform Medical Images into Explainable Clinical Insights with MedSAM, Vision Transformers and Multimodal AI
Skills you will gain:
About Program:
This three-day international workshop provides practical training in AI-based radiology using CT, MRI and X-ray data. Participants will learn medical image preprocessing, multimodal data fusion, MedSAM segmentation, Vision Transformer models, chest X-ray classification and clinical explainable AI.
Hands-on Google Colab sessions will use MONAI, MedSAM, Swin UNETR, TorchXRayVision, PyTorch and Captum to build reproducible medical imaging workflows.
Aim: To develop practical skills in building, evaluating and explaining AI models for multimodal radiology and medical image analysis
Program Objectives:
Participants will learn to:
- Process DICOM and NIfTI medical images.
- Normalize, align and resample CT and MRI scans.
- Build multimodal medical imaging pipelines.
- Apply MedSAM and Swin UNETR for segmentation.
- Perform multi-label chest X-ray classification.
- Generate Grad-CAM and Integrated Gradients explanations.
- Evaluate models using Dice Score, AUROC, precision, recall and F1-score.
- Prepare publication-ready figures and validation reports.
What you will learn?
🗓️ Day 1: Multi-Modal Radiology Data Pipeline Engineering
- Objective: Build standardized and memory-efficient pipelines for processing multi-modal medical imaging data.
- Introduction to CT, MRI, X-ray, and clinical data fusion.
- Understanding DICOM and NIfTI medical imaging formats.
- Managing LPS/RAS orientation and spatial alignment.
- Applying intensity normalization and Hounsfield Unit windowing.
- Comparing early-fusion and late-fusion architectures.
- Isotropic voxel resampling for consistent 3D analysis.
- Patch sampling and sliding-window inference for large volumes.
🛠️ Hands-on Lab (Google Colab)
- Task: Build a MONAI pipeline to load, normalize, resample, and spatially align paired T1/T2 MRI and CT scans.
- Tools Covered: MONAI, SimpleITK, PyTorch, TorchIO, and Google Colab.
🗓️ Day 2: Vision Transformers, MedSAM and Automated Pathology Detection
- Objective: Apply transformer architectures and medical foundation models for segmentation and multi-label diagnosis.
- Evolution from U-Net to transformer-based medical image segmentation.
- Architecture and clinical applications of Swin UNETR.
- Introduction to MedSAM and medical foundation models.
- Using bounding-box, point, and mask-based segmentation prompts.
- Zero-shot segmentation of lesions and anatomical regions.
- Transfer learning with pre-trained radiology models.
- Multi-label detection of pneumonia, pneumothorax, and pulmonary nodules.
🛠️ Hands-on Lab (Google Colab)
- Task: Segment lung nodules using MedSAM prompts and perform multi-label chest X-ray classification using TorchXRayVision.
- Tools Covered: MedSAM, TorchXRayVision, Swin UNETR, MONAI, Hugging Face, and Google Colab.
🗓️ Day 3: Explainable AI, Clinical Validation and Research Publication
- Objective: Interpret medical AI predictions, evaluate model performance, and prepare reproducible research outputs.
- Understanding the importance of explainability in clinical AI systems.
- Creating Grad-CAM and Layer-CAM visualizations.
- Applying Integrated Gradients to multi-modal medical imaging models.
- Evaluating segmentation using Dice Score and Hausdorff Distance.
- Evaluating classification using AUROC, precision, recall, and F1-score.
- Designing ablation studies and comparative experiments.
- Creating publication-ready figures and reproducible research workflows.
🛠️ Hands-on Lab (Google Colab)
- Task: Generate saliency maps using Captum and Grad-CAM, create 300-DPI radiology visualizations, and produce statistical validation reports.
- Tools Covered: Captum, PyTorch Grad-CAM, scikit-learn, MONAI Label, Matplotlib, Seaborn, and Google Colab.
Mentor Profile
Fee Plan
Get an e-Certificate of Participation!

Intended For :
- Radiologists and clinical researchers
- PhD scholars and postgraduate students
- Academicians and faculty members
- Biomedical and medical imaging researchers
- Healthcare data scientists
- AI and machine learning professionals
- Biomedical engineers
- Medical imaging and diagnostic-AI professionals
Career Supporting Skills
Program Outcomes
By the end of the workshop, participants will be able to:
- Build standardized MONAI imaging pipelines.
- Segment lesions and anatomical regions using MedSAM.
- Apply Vision Transformers to medical imaging tasks.
- Classify radiological abnormalities from chest X-rays.
- Interpret model predictions using clinical XAI methods.
- Evaluate segmentation and classification performance.
- Create reproducible research workflows and publication-ready outputs.
