NSTC Logo
Home >Courses >Federated Learning for Medical AI

Mentor Based

Federated Learning for Medical AI

Secure Collaboration, Smarter Healthcare—Federated Learning in Action

Register NowExplore Details

Early access to e-LMS included

  • Mode: Online/ e-LMS
  • Type: Mentor Based
  • Level: Moderate
  • Duration: 3 Weeks

About This Course

“Federated Learning for Medical AI” is a specialized, interdisciplinary training program designed to address one of the most critical challenges in healthcare AI: using data securely across multiple hospitals, labs, and clinics. With federated learning, sensitive medical data never leaves its source—AI models are trained collaboratively while ensuring patient privacy and regulatory compliance. This course teaches how to architect FL systems for clinical prediction, medical imaging, diagnostics, and real-world health data modeling.

Aim

To provide participants with the theoretical understanding and practical skills to design, deploy, and evaluate federated learning (FL) systems for medical and healthcare AI applications, enabling privacy-preserving collaboration across institutions.

Program Objectives

  • To introduce the principles and architectures of federated learning

  • To explore privacy-preserving AI systems in the context of medical data

  • To bridge the gap between AI capabilities and regulatory frameworks

  • To develop the ability to deploy federated AI systems in clinical settings

Program Structure

Week 1: Introduction to Federated Learning and Healthcare AI

Module 1: Foundations of Federated Learning (FL)

  • Chapter 1.1: What is Federated Learning? Concept and Motivation

  • Chapter 1.2: Centralized vs. Federated vs. Distributed Learning

  • Chapter 1.3: Architecture of FL Systems: Clients, Servers, and Aggregators

  • Chapter 1.4: Key Algorithms (FedAvg, FedProx, FedBN)

Module 2: Medical Data and AI Use Cases

  • Chapter 2.1: AI in Healthcare: Imaging, EHRs, Genomics

  • Chapter 2.2: Challenges of Centralized Medical AI (Privacy, Bias, Silos)

  • Chapter 2.3: Why FL Suits Medical Contexts (Regulatory & Practical Needs)

  • Chapter 2.4: Data Heterogeneity in Medical Systems


Week 2: Building and Optimizing FL Models for Medical AI

Module 3: Data and Model Preparation

  • Chapter 3.1: Preprocessing Medical Data in Federated Settings

  • Chapter 3.2: FL with Medical Imaging (X-rays, MRIs, Histopathology)

  • Chapter 3.3: Text Data and EHR Modeling

  • Chapter 3.4: Federated Transfer Learning and Personalization

Module 4: Privacy, Security, and Ethics

  • Chapter 4.1: Differential Privacy and Secure Aggregation in FL

  • Chapter 4.2: Threat Models: Attacks on FL and Mitigation

  • Chapter 4.3: Regulatory Frameworks: HIPAA, GDPR, and FL

  • Chapter 4.4: Ethical Considerations in Medical AI Collaboration


Week 3: Real-World Applications and Deployment

Module 5: Case Studies and Open-Source Tools

  • Chapter 5.1: FL in Hospital Networks: COVID-19 & Cancer Detection

  • Chapter 5.2: Federated Clinical NLP in EHRs

  • Chapter 5.3: Tools and Frameworks (TensorFlow Federated, Flower, NVFlare)

  • Chapter 5.4: Federated Benchmark Datasets in Medicine

Module 6: Deployment, Evaluation, and Future Outlook

  • Chapter 6.1: System Design for Real-World FL in Clinics

  • Chapter 6.2: Evaluation Metrics and Cross-Site Validation

  • Chapter 6.3: Integrating FL into Existing Health IT Infrastructure

  • Chapter 6.4: Future Trends: Cross-Silo Collaboration, Multimodal FL, and Policy Impact

Who Should Enrol?

  • Professionals and researchers in medical AI, bioinformatics, healthcare IT

  • Graduate students in AI/ML, computer science, or biomedical engineering

  • Basic understanding of machine learning and Python recommended

Program Outcomes

Upon completion of the course, participants will:

  • Build and simulate federated learning models for healthcare use-cases

  • Apply secure and privacy-preserving techniques to real-world clinical datasets

  • Evaluate FL model performance in heterogeneous environments

  • Understand and mitigate risks in distributed AI model development

Fee Structure

Discounted: ₹21499 | $249

We accept 20+ global currencies. View list →

What You’ll Gain

  • Full access to e-LMS
  • Real-world dry lab projects
  • 1:1 project guidance
  • Publication opportunity
  • Self-assessment & final exam
  • e-Certificate & e-Marksheet

Join Our Hall of Fame!

Take your research to the next level with NanoSchool.

Publication Opportunity

Get published in a prestigious open-access journal.

Centre of Excellence

Become part of an elite research community.

Networking & Learning

Connect with global researchers and mentors.

Global Recognition

Worth ₹20,000 / $1,000 in academic value.

Need Help?

We’re here for you!


(+91) 120-4781-217

★★★★★
AI-Powered Customer Experience

I have not met him/her

purvesh mehta
★★★★★
The Green NanoSynth Workshop: Sustainable Synthesis of NiO Nanoparticles and Renewable Hydrogen Production from Bioethanol

Though he explained all things nicely, my suggestion is to include some more examples related to hydrogen as fuel, and the necessary action required for its safety and wide use.

Pushpender Kumar Sharma
★★★★★
Large Language Models (LLMs) and Generative AI

The mentor was supportive, clear in their guidance, and encouraged active participation throughout the process.

António Ricardo de Bastos Teixeira
★★★★★
Build Intelligent AI Apps with Retrieval-Augmented Generation (RAG)

Please organise and execute better and maintain a professional setting with no disturbance and stable wifi.

Astha Anand

View All Feedbacks →

Stay Updated


Join our mailing list for exclusive offers and course announcements

Ai Subscriber

>