Abstract
This chapter explores the transformative evolution of computing and machine learning towards decentralized architectures, with a specific emphasis on federated learning (FL) in metaverse healthcare. It touches on the advancement from centralized computing frameworks to distributed systems, edge computing, and ultimately, FL paradigms. This chapter investigates the challenges decentralization poses to traditional machine-learning techniques and highlights adaptations of FL systems that facilitate effective learning on distributed, heterogeneous data. Key components of FL systems, such as local training, aggregation mechanisms, and communication protocols are thoroughly examined. This chapter addresses critical challenges, including data heterogeneity, communication efficiency, privacy preservation, and model convergence in decentralized settings. Advanced techniques such as personalization, hierarchical learning, and federated transfer learning are explored, underscoring their potential to enhance federated system effectiveness. Specific importance is placed on the implications of these technological advancements for metaverse healthcare. This chapter demonstrates how FL can revolutionize personalized medicine, enable collaborative research, facilitate real-time health monitoring, and support adaptive learning in dynamic healthcare environments. The benefits of FL for patient privacy preservation, data security, and compliance with stringent healthcare regulations such as General Data Protection Regulation and HIPAA are highlighted. This chapter also examines the integration of FL with other emerging technologies within the metaverse. The synergy between FL and blockchain technology is explored, showing how decentralized ledger systems can enhance the security and transparency in FL processes. Furthermore, the potential of combining FL with quantum computing is considered, providing insights into how quantum algorithms could accelerate and optimize distributed learning tasks. Ethical considerations and regulatory challenges are thoroughly analyzed, addressing concerns such as algorithmic bias, informed consent, and the need for robust artificial intelligence (AI) governance frameworks. The importance of developing ethical guidelines and regulatory policies to ensure responsible and equitable implementation of FL in diverse healthcare settings is emphasized. In conclusion, this comprehensive examination offers researchers, practitioners, and policymakers crucial insights into the evolving landscape of decentralized computing and machine learning. By presenting a roadmap for leveraging these technologies, the chapter aims to inspire innovative solutions that transform healthcare in the metaverse era. The integration of FL promises to revolutionize personalized medicine and wellness, leading to improved patient outcomes, enhanced collaboration among healthcare providers, and the realization of a truly interconnected and intelligent healthcare ecosystem. Key components of FL systems, such as local training, aggregation mechanisms, and communication protocols are thoroughly examined. This chapter addresses critical challenges, including data heterogeneity, communication efficiency, privacy preservation, and model convergence in decentralized settings. Advanced techniques such as personalization, hierarchical learning, and federated transfer learning are explored, underscoring their potential to enhance federated system effectiveness. Specific importance is placed on the implications of these technological advancements for metaverse healthcare. This chapter demonstrates how FL can revolutionize personalized medicine, enable collaborative research, facilitate real-time health monitoring, and support adaptive learning in dynamic healthcare environments. The benefits of FL for patient privacy preservation, data security, and compliance with stringent healthcare regulations such as General Data Protection Regulation (GDPR) and HIPAA are highlighted. This chapter also examines the integration of FL with other emerging technologies within the metaverse. The synergy between FL and blockchain technology is explored, showing how decentralized ledger systems can enhance the security and transparency in FL processes. Furthermore, the potential of combining FL with quantum computing is considered, providing insights into how quantum algorithms could accelerate and optimize distributed learning tasks. Ethical considerations and regulatory challenges are thoroughly analyzed, addressing concerns such as algorithmic bias, informed consent, and the need for robust AI governance frameworks. The importance of developing ethical guidelines and regulatory policies to ensure responsible and equitable implementation of FL in diverse healthcare settings is emphasized. In conclusion, this comprehensive examination offers researchers, practitioners, and policymakers crucial insights into the evolving landscape of decentralized computing and machine learning. By presenting a roadmap for leveraging these technologies, this chapter aims to inspire innovative solutions that transform healthcare in the metaverse era. The integration of FL promises to revolutionize personalized medicine and wellness, leading to improved patient outcomes, enhanced collaboration among healthcare providers, and the realization of a truly interconnected and intelligent healthcare ecosystem.
| Original language | English |
|---|---|
| Title of host publication | Federated Learning in Metaverse Healthcare |
| Subtitle of host publication | Personalized Medicine and Wellness |
| Editors | S. Mahajan, J. Moy Chatterjee |
| Publisher | Elsevier |
| Chapter | 14 |
| Pages | 311-332 |
| ISBN (Electronic) | 9780443337895 |
| ISBN (Print) | 9780443337901 |
| DOIs | |
| Publication status | Published - 2025 |
Keywords
- artificial intelligence
- augmented reality
- Machine learning
- virtual reality
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