A Hybrid Machine Learning-based Data-Centric Cybersecurity Detection in
the 5G-Enabled IoT
Abstract
By increasing smart objects as high-potential computing devices and 5G
technology, the Internet of Things (IoT) has emerging technology to
provide a data-centric infrastructure for detecting safe
device-to-device communications by supporting security and privacy
issues. As 5G-enabled communication technology, Vehicle-to-Vehicle (V2V)
communication provides a wirelessly exchange information connection
between smart vehicles, intelligent devices and cloud-edge computing
environment. This connection should be established with a safe and
secured run-time protection system to avoid many critical anomalies and
misbehavior problems. Detecting run-time malicious transformations with
data-centric misbehaving reactions is a main challenge for autonomous
vehicle communications with 5G-enabled communication technology. This
paper provides a hybrid Genetic Algorithm-based Ensemble Bagged Trees
(GA-EBT) algorithm for a data-centric misbehavior detection approach to
support the V2V communications against malicious and misbehavior
transactions. For evaluation of the proposed algorithm, four real
test-cases are applied for messaging injection attacks in the V2V
environments with compare to the state-of-the-art machine learning
algorithms. The experimental results show that the proposed hybrid
approach can achieve to optimal high rate accuracy factor with 99.999,
precision and recall factors with 100% and F1-Score factor with 100%
to detect unexpected cyber-attacks for the V2V communications in the IoT
environment.