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Blockchain-Inspired Collaborative Cyber-Attacks Detection for Securing Metaverse

delete2024-05-15
delete5
PRE
AI
A
Ahmad Zainudin
M
Made Adi Paramartha Putra
R
Revin Naufal Alief
R
Rubina Akter
D
Dong‐Seong Kim
J
Jae‐Min Lee *
DOI:10.1109/JIOT.2024.3364247delete
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Abstract

Abstract

En 中文
The heterogeneous connections in metaverse environments pose vulnerabilities to cyber-attacks. To prevent and mitigate malicious network activities in a distributed metaverse, conventional intrusion detection systems (IDS) have communication overhead and privacy concerns. Federated learning (FL) techniques are widely employed to develop IDS frameworks and enable privacy-preserving collaborative learning schemes in decentralized ecosystems. However, the vanilla FL system utilizes a centralized FL aggregation technique, which introduces a single point of failure (SPoF) and potential unauthorized aggregators, allowing malicious clients to inject false data parameters, known as poisoning attacks. Furthermore, low-quality clients in the FL system can result in degraded model performance and hinder convergence. This study proposes a secure and reliable blockchain-aided federated learning (BFL)-based IDS framework using a lightweight model for securing metaverse. An authorized federated IDS is proposed to establish a trustworthy decentralized aggregation mechanism, utilizing Proof-of-Authority (PoA) consensus. The proposed federated IDS implemented a hybrid client selection (HCS) technique, considering the accuracy and reputation of client histories, to select high-quality metaverse edge devices. Additionally, a fairness ERC-20 token-based incentive mechanism was developed to reward selected FL clients as a token of appreciation for their contribution to the FL training processes. According to the IDS framework measurements, the proposed model performs better than the existing approaches for detecting cyber-attacks in metaverse environments, achieving an accuracy of 99.28% with trainable parameters of 1.8K and mega floating-point operations (MFLOPs) of 0.0016.
Keywords:
Metaverse
Blockchains
Training
Reliability
Federated learning
Internet of Things
Cyberattack
ERC-20-based token incentive mechanism
federated intrusion detection system (FIDS)
hybrid client selection (HCS)
trusted decentralized aggregation

Journal

IEEE Internet of Things Journal cover
IEEE Internet of Things Journal
IF:
8.9
Papers:
1.4W
Citations:
7.8W

Organization

K
kumoh national university technology
Scholars:
1.6K
Papers: 1.7K
Citations: 3