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DATA PRIVACY-AWARE MACHINE LEARNING AND FEDERATED LEARNING: A FRAMEWORK FOR DATA SECURITY

Md. Tarek Hasan, Sai Praveen Kudapa

2021American Journal of Interdisciplinary Studies5 citationsDOIOpen Access PDF

Abstract

This study presents a comprehensive systematic review and meta-analysis of 128 peer-reviewed publications on data privacy-aware machine learning (ML) and federated learning (FL), synthesizing their theoretical foundations, computational mechanisms, and ethical implications within the evolving landscape of privacy-preserving artificial intelligence. Guided by the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) framework, the research integrates multidisciplinary perspectives spanning computer science, ethics, law, and digital governance to evaluate how privacy-aware methodologies and decentralized architectures collectively enhance data protection, regulatory compliance, and algorithmic accountability. The findings reveal that differential privacy, homomorphic encryption, and secure multi-party computation constitute the principal mechanisms enabling quantifiable confidentiality without significant loss of model utility. Concurrently, federated learning has emerged as a scalable and policy-aligned framework that decentralizes computation, ensuring data sovereignty and compliance with international privacy regulations such as GDPR, HIPAA, and CCPA. The meta-analysis indicates that integrated privacy-preserving federated systems achieve an average model accuracy of 93%, reduce data leakage risks by 68%, and improve overall energy efficiency by 22% relative to traditional centralized architectures. However, the study also identifies persistent challenges, including communication bottlenecks, heterogeneity in non-identically distributed datasets, trade-offs between privacy and interpretability, and the underexplored environmental costs of encryption and distributed computation. Despite these limitations, the synthesis affirms that privacy-aware federated learning represents a paradigm shift in artificial intelligence—from reactive data protection to proactive privacy-by-design computation. By uniting technical innovation, ethical governance, and policy coherence, this study establishes a holistic framework that redefines data privacy as both a computational property and a moral imperative in the era of intelligent, decentralized automation.

Topics & Concepts

Computer scienceScalabilityHomomorphic encryptionFederated learningInformation privacyEncryptionArtificial intelligenceMachine learningDifferential privacyConfidentialityData securityCloud computingData scienceBig dataData Protection Act 1998Multidisciplinary approachComputer securityPrivacy policyGeneral Data Protection RegulationPrivacy by DesignPrincipal (computer security)Intellectual propertyCorporate governanceData sharingDistributed databaseData governancePrivacy-Preserving Technologies in DataBig Data and Digital EconomyIoT and Edge/Fog Computing