Blockchain-Driven Federated Learning for Real-Time Threat Defense and Forensic Insight

Real-time, privacy-conserving forensic analysis is needed as cyber threats become more sophisticated. Centralized machine learning models face data privacy, security, and scalability issues, while traditional federated learning does not have integrity verification or adaptive threat indication. This paper presents a Blockchain-Integrated Federated Learning (BFL) framework for supporting digital forensics and real-time cyber threat defense. BFL facilitates forensic organizations to jointly train models without sharing raw data, ensuring data privacy. Blockchain guarantees tamper-evident forensic logs, safe model updates, and automated verification via smart contracts. Experimental outcomes verify that BFL greatly surpasses centralized and traditional federated learning methods, with a detection accuracy of 98.5% for cyber threats. Incorporating blockchain enhances model security, verifies latency, and increases adversarial robustness. By integrating distributed learning with immutable forensic logging, the framework proposed provides an scalable, reliable solution to real-time cyber protection. The research sets an encouraging basis for next-generation AI-based digital forensic systems in secure and smart cybersecurity investigations.

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Published
2025-07-25
DOI
https://doi.org/10.1109/isac364032.2025.11156741
Primary Topic
Privacy-Preserving Technologies in Data
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article
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article

Blockchain-Driven Federated Learning for Real-Time Threat Defense and Forensic Insight

Malik Bader Alazzam, S.T. Gopukumar, Mohd Faizal Abdollah, Hajar Kadhim et al.
Privacy-Preserving Technologies in Data
article

Blockchain-Driven Federated Learning for Real-Time Threat Defense and Forensic Insight

Malik Bader Alazzam, S.T. Gopukumar, Mohd Faizal Abdollah, Hajar Kadhim, Sheik Jamil Ahmed, Aaied Eqab Muraay Majed
article en

Abstract

Real-time, privacy-conserving forensic analysis is needed as cyber threats become more sophisticated. Centralized machine learning models face data privacy, security, and scalability issues, while traditional federated learning does not have integrity verification or adaptive threat indication. This paper presents a Blockchain-Integrated Federated Learning (BFL) framework for supporting digital forensics and real-time cyber threat defense. BFL facilitates forensic organizations to jointly train models without sharing raw data, ensuring data privacy. Blockchain guarantees tamper-evident forensic logs, safe model updates, and automated verification via smart contracts. Experimental outcomes verify that BFL greatly surpasses centralized and traditional federated learning methods, with a detection accuracy of 98.5% for cyber threats. Incorporating blockchain enhances model security, verifies latency, and increases adversarial robustness. By integrating distributed learning with immutable forensic logging, the framework proposed provides an scalable, reliable solution to real-time cyber protection. The research sets an encouraging basis for next-generation AI-based digital forensic systems in secure and smart cybersecurity investigations.

University of Kirkuk (IQ), University of Technology - Iraq (IQ), Jadara University (JO), Baghdad Medical City (IQ), Saveetha University (IN)
Openalex Percentile: Top 87%
Privacy-Preserving Technologies in Data
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Blockchain-Driven Federated Learning for Real-Time Threat Defense and Forensic Insight — Malik Bader Alazzam, S.T. Gopukumar, et al. · (2025) | TGRS Research Map | TGRS