AI-driven resilience: advancing DDoS detection in virtualised IoT environments through an FCNN-based framework
AI-driven resilience: advancing DDoS detection in virtualised IoT environments through an FCNN-based framework
The rapid adoption of Internet of Things systems has accelerated the use of virtualisation technologies, including software-defined networking and cloud-based sensor platforms, to enhance scalability and manageability. However, these technologies introduce new security vulnerabilities, particularly distributed denial-of-service attacks, which pose significant risks to the stability and performance of virtualised IoT environments. This thesis addresses these challenges by proposing a novel AI-based DDoS detection framework specifically designed for virtualised IoT networks.A lightweight five-layer fully connected neural network comprising 49,729 parameters is developed and evaluated using eight benchmark datasets, including a custom virtualised IoT testbed with 168 hours of baseline traffic characterisation. The framework integrates batch normalisation, adaptive dropout regularisation, Adam optimisation, and SMOTE-based class balancing to enhance training stability and generalisation. The experimental results demonstrate a mean detection accuracy of 99.85% across all datasets, achieving a peak accuracy of 99.92% on the virtualised IoT testbed. The proposed model significantly outperforms established approaches, including LSTM, Random Forest, and Support Vector Machine classifiers, with all improvements statistically significant (p < 0.001) and showing large effect sizes.This research contributes to IoT security by quantifying virtualisation-specific vulnerabilities, demonstrating the effectiveness of lightweight AI-based detection in resource-constrained environments, and establishing experimentally validated scalability limits for deployment. The findings provide practical insights for designing efficient, adaptive DDoS detection systems for virtualised IoT infrastructures, while highlighting future directions in model adaptability, cross-domain evaluation, and privacy-preserving collaborative learning.
University of Southampton
Asad, Belal
18f6da90-4e9a-4d19-88cf-7d4fc999d9ec
Asad, Belal
18f6da90-4e9a-4d19-88cf-7d4fc999d9ec
Al Hashimy, Nawfal
e73b96f2-bf15-40cb-9af5-23c10ea8e319
Atamli, Ahmad
dacf7d9e-9898-4385-bf88-5aec14d76872
Asad, Belal
(2026)
AI-driven resilience: advancing DDoS detection in virtualised IoT environments through an FCNN-based framework.
Cyber Security, Doctoral Thesis, 388pp.
Record type:
Thesis
(Doctoral)
Abstract
The rapid adoption of Internet of Things systems has accelerated the use of virtualisation technologies, including software-defined networking and cloud-based sensor platforms, to enhance scalability and manageability. However, these technologies introduce new security vulnerabilities, particularly distributed denial-of-service attacks, which pose significant risks to the stability and performance of virtualised IoT environments. This thesis addresses these challenges by proposing a novel AI-based DDoS detection framework specifically designed for virtualised IoT networks.A lightweight five-layer fully connected neural network comprising 49,729 parameters is developed and evaluated using eight benchmark datasets, including a custom virtualised IoT testbed with 168 hours of baseline traffic characterisation. The framework integrates batch normalisation, adaptive dropout regularisation, Adam optimisation, and SMOTE-based class balancing to enhance training stability and generalisation. The experimental results demonstrate a mean detection accuracy of 99.85% across all datasets, achieving a peak accuracy of 99.92% on the virtualised IoT testbed. The proposed model significantly outperforms established approaches, including LSTM, Random Forest, and Support Vector Machine classifiers, with all improvements statistically significant (p < 0.001) and showing large effect sizes.This research contributes to IoT security by quantifying virtualisation-specific vulnerabilities, demonstrating the effectiveness of lightweight AI-based detection in resource-constrained environments, and establishing experimentally validated scalability limits for deployment. The findings provide practical insights for designing efficient, adaptive DDoS detection systems for virtualised IoT infrastructures, while highlighting future directions in model adaptability, cross-domain evaluation, and privacy-preserving collaborative learning.
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Submitted date: 13 April 2026
Identifiers
Local EPrints ID: 510654
URI: http://eprints.soton.ac.uk/id/eprint/510654
PURE UUID: 1c7dc95c-1907-4313-b19d-059c152103bc
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Date deposited: 15 Apr 2026 16:45
Last modified: 16 Apr 2026 02:02
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Contributors
Author:
Belal Asad
Thesis advisor:
Nawfal Al Hashimy
Thesis advisor:
Ahmad Atamli
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