Federated Quantum Convolutional Neural Networks in Healthcare
Enhancing Privacy and Efficiency
- 1st Edition - February 1, 2027
- Latest edition
- Editors: Abhishek Kumar, Priya Batta, Reyes Juárez Ramírez, J.P. Ananth
- Language: English
Federated Quantum Convolutional Neural Networks in Healthcare: Enhancing Privacy and Efficiency explores the innovative intersection of quantum computing and federated learni… Read more
Description
Description
Key features
Key features
- Explains the integration of quantum computing with federated learning tailored for healthcare
- Presents case studies on medical imaging, genomics, and disease diagnosis
- Details privacy-preserving methods and secure communication protocols
- Discusses scalability, efficiency, and deployment challenges in healthcare environments
- Highlights future directions and potential societal impact of FedQCNNs
Readership
Readership
Table of contents
Table of contents
Motivation for integrating quantum computing with federated learning
Importance of privacy in healthcare AI
Scope and contributions of the book
2. Foundations of Quantum Computing and Federated Learning
Basics of quantum mechanics and computing principles
Introduction to federated learning and its advantages
Synergy of quantum and federated approaches in healthcare
3. Challenges in Healthcare Data Privacy and Security
Sensitivity of Healthcare Data
Data Exposure Risks and Systemic Vulnerabilities
Limits of Traditional Security Approaches
Toward Privacy-Preserving Solutions
4. Principles and Architecture of Quantum Convolutional Neural Networks (QCNNs)
QCNN structure, components, and gate designs
Training procedures and optimization in quantum systems
Feature extraction using quantum operations
5. Quantum Machine Learning for Healthcare
Quantum data encoding, entanglement, and superposition
Hybrid quantum-classical models for learning
Application scenarios in healthcare diagnostics
6. Federated Quantum Convolutional Neural Networks (FedQCNNs)
Introduction and architecture of FedQCNNs
Operational communication flow and use cases
Benefits over traditional and standalone approaches
7. Design, Implementation, and Deployment of FedQCNNs
Software/hardware stack and workflow
Deployment challenges and scalability considerations
Tools and platforms for healthcare integration
8. Secure Communication and Aggregation Protocols
Quantum key distribution and cryptographic methods
Secure multiparty computation and homomorphic encryption
Federated secure model update aggregation techniques
9. Privacy-Preserving Methods for Healthcare Data
Differential privacy in federated and quantum settings
Federated data anonymization and governance
Security auditing and privacy threat models
10. Efficiency, Scalability, and Optimization Techniques
Resource-efficient FedQCNN architecture
Communication optimization and model pruning
Edge-device integration and asynchronous training
11. Evaluation and Performance on Real-World Datasets
Healthcare Dataset Benchmarks
Performance Metrics and Comparisons
Bias, Sample Size, and Data Leakage Issues
Clinical Interpretability and Case Studies
12. Medical Image Analysis and Genomics Applications
Use of FedQCNNs in radiology, pathology, and genomics
Case studies: lung X-rays, cancer detection, genetic data analysis
Personalized medicine and pattern recognition
13. Case Studies in Real-World Healthcare Scenarios
COVID-19 Diagnosis using Federated Quantum Learning
Breast Cancer Detection through Collaborative Quantum AI
Predictive Genomics and Disease Susceptibility Modeling
14. Quantum Noise, Error Correction, and Practical Limitations
Quantum error correction techniques and codes
Fault tolerance in quantum federated systems
Current hardware and environmental limitations
15. Integration with Classical Federated Learning Models
Hybrid and interoperable learning systems
Transition strategies from classical to quantum FL
Unified pipelines and data interchange
16. Collaborative Frameworks and Institutional Deployments
Cross-institutional data sharing and partnerships
Governance and collaborative research networks
Ethics and public trust in collaborative AI
17. Regulatory and Legal Frameworks for FedQCNNs
Overview of Global Healthcare Regulations
The Need for Updated Policies (HIPAA and Beyond)
Compliance, Ethics, and Data Sovereignty
Roadmap for Adaptive Legal Integration
18. Future Directions and Impact on Healthcare Innovation
Vision for secure, decentralized, and intelligent healthcare
Emerging research trends in federated quantum AI
Societal impact and healthcare transformation outlook
Product details
Product details
- Edition: 1
- Latest edition
- Published: February 1, 2027
- Language: English
About the editors
About the editors
AK
Abhishek Kumar
PB
Priya Batta
RR
Reyes Juárez Ramírez
JA
J.P. Ananth
Dr J. P. Ananth is Professor of Computer Science & Engineering and Director, IQAC, at Dayananda Sagar University, Bengaluru. He holds a B.E. and M.E. in Computer Science from MS University and a PhD from Sathyabama University, Chennai. With 23 years of academic experience, he has previously served as Professor and Dean–IQAC, Coimbatore, where he led NAAC Cycle II to an A++ accreditation in 2024. His research interests include Computer Vision, Pattern Recognition, AI, and Data Analytics, supported by DST-TIDE funding. He has published impactful research in reputed journals such as Expert Systems with Applications, has supervised six PhD scholars, and reviews for leading international journals and conferences.