πŸ₯ Federated Learning in Healthcare

Privacy-Preserving Collaborative Medical AI

πŸ”’ Privacy-First 🌍 Global Collaboration 🎯 Better Diagnostics
Ready to Start
Click "Start Training" to begin the federated learning demonstration
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Research
Consortium
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City Hospital
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Medical Univ.
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Regional Med
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Research Inst.
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Children's Hosp
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Tech University

πŸš€ Getting Started

Healthcare Federated Learning enables hospitals, universities, and research institutions to collaboratively train AI models for medical diagnosis, treatment prediction, and drug discovery without sharing sensitive patient data.

  • Each institution keeps patient data locally
  • Only model improvements are shared
  • Global model benefits from diverse medical cases
  • Maintains HIPAA and GDPR compliance

πŸ”¬ Why Healthcare Needs Federated Learning

Traditional Challenges:

  • Patient privacy regulations prevent data sharing
  • Medical data is siloed across institutions
  • Small datasets limit AI model accuracy
  • Rare diseases need global collaboration

Federated Solution: Train on combined knowledge without moving sensitive patient records.

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Privacy Protection

Patient data never leaves the institution, ensuring complete confidentiality

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Global Collaboration

Worldwide medical expertise combined without regulatory barriers

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Better Diagnostics

AI trained on diverse populations improves accuracy across demographics

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Faster Research

Accelerate drug discovery and treatment development through collaboration

πŸ₯ Real-World Healthcare Applications

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Cardiac Disease Detection

Challenge: Detecting heart disease from ECG data across different populations

Solution: 20 hospitals collaborate to train a CNN model on 100,000+ ECG recordings

Result: 15% improvement in detection accuracy, especially for underrepresented groups

πŸ“Š 100K+ ECGs πŸ₯ 20 Hospitals πŸ“ˆ 15% Better
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Brain Tumor Segmentation

Challenge: Accurate brain tumor detection from MRI scans

Solution: International consortium trains U-Net model on diverse MRI datasets

Result: 22% improvement in tumor boundary detection accuracy

🧠 50K+ MRIs 🌍 15 Countries πŸ“ˆ 22% Better
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COVID-19 Drug Discovery

Challenge: Finding effective treatments for COVID-19 variants

Solution: Pharmaceutical companies share molecular analysis models

Result: 3x faster identification of promising drug candidates

πŸ’Š 1M+ Compounds 🏭 8 Pharma ⚑ 3x Faster

πŸ”¬ Technical Implementation

πŸ”„ Federated Averaging Algorithm

1
Initialize: Global model parameters ΞΈβ‚€
2
Distribute: Send ΞΈβ‚œ to all clients
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Train: Each client computes local update Δθᡒ
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Aggregate: ΞΈβ‚œβ‚Šβ‚ = ΞΈβ‚œ + Ξ·βˆ‘α΅’(nα΅’/n)Δθᡒ

πŸ” Privacy Techniques

🎭

Differential Privacy

Adds calibrated noise to prevent individual data inference

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Secure Aggregation

Cryptographic protocols for safe parameter combination

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Homomorphic Encryption

Computations on encrypted data without decryption

🧠 Test Your Knowledge

Question 1 of 3

What is the main advantage of federated learning in healthcare?

Score: 0/3

Β© 2025 Machine Learning for Health Research Course | Prof. Gennady Roshchupkin

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