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An AI-Resilient Cybersecurity Framework for 5G Telecommunications Networks: Detecting Adversarial Machine Learning, Autonomous Intrusions, and Intelligent Edge Threats in Critical Infrastructure

Ken Mudzingwa Stewart Munyaradzi Nyamutswa Admore Tafadzwa Mugwadzi Panashe Yolanda Dhegwa Munashe Naphtali Mupa

Subject area: Science,Engineering and Technology  ·  Area of research: Cybersecurity

Abstract

Fifth-generation telecommunications networks are becoming a strategic layer of critical infrastructure because they connect public safety, financial systems, healthcare, logistics, energy, industrial control systems and intelligent edge services. The same characteristics that make 5G valuable - ultra-low latency, dense device connectivity, software-defined network functions, network slicing, cloud-native service-based architecture and edge computing - also create an expanded attack surface for adversaries using artificial intelligence. This paper develops an AI-resilient cybersecurity framework for 5G telecommunications networks by integrating 5G security literature, adversarial machine learning research, zero-trust architecture, AI risk management and empirical cyber-incident analytics. The empirical component uses the Kaggle Global Cybersecurity Threats (2015-2024) dataset, comprising 3,000 incident records across 10 countries, 7 industries and 6 attack categories, to model sectoral exposure, telecommunications-specific risk, loss severity and incident-resolution burden. The sample records USD 151.48 billion in aggregate estimated financial loss, 1.51 billion affected-user records and a mean resolution time of 36.48 hours. Telecommunications incidents account for 403 records and USD 20,459.09 million in estimated loss, with man-in-the-middle, DDoS, phishing and malware attacks showing elevated relevance for AI-enabled 5G threat scenarios. Heat-map analysis identifies telecommunications man-in-the-middle attacks as one of the highest AI-5G exposure cells, while random-forest triage demonstrates that affected-user scale, resolution time, year and the constructed AI-5G Exposure Index are the strongest predictors of high-impact incidents in the analytical design. The paper contributes a practical AI-Resilient 5G Cybersecurity Framework built around adversarially robust intrusion detection, zero-trust identity, slice isolation, secure edge orchestration, model-risk governance, threat-informed vulnerability prioritisation, incident-response automation, post-quantum crypto-agility and continuous assurance. The central finding is that 5G security cannot be reduced to conventional perimeter defence; it requires a converged operating model that secures networks, data, machine-learning pipelines, identities, cloud-native functions and critical service continuity together.

Keywords

5G security; telecommunications; adversarial machine learning; AI-enabled cyber threats; critical infrastructure; intelligent edge; network slicing; zero trust; intrusion detection; post-quantum cryptography.

How to cite this paper

Ken Mudzingwa, Stewart Munyaradzi Nyamutswa, Admore Tafadzwa Mugwadzi, Panashe Yolanda Dhegwa, Munashe Naphtali Mupa "An AI-Resilient Cybersecurity Framework for 5G Telecommunications Networks: Detecting Adversarial Machine Learning, Autonomous Intrusions, and Intelligent Edge Threats in Critical Infrastructure" Iconic Research And Engineering Journals Volume 10 Issue 2 2026 Page 2497-2514
Ken Mudzingwa, Stewart Munyaradzi Nyamutswa, Admore Tafadzwa Mugwadzi, Panashe Yolanda Dhegwa, Munashe Naphtali Mupa "An AI-Resilient Cybersecurity Framework for 5G Telecommunications Networks: Detecting Adversarial Machine Learning, Autonomous Intrusions, and Intelligent Edge Threats in Critical Infrastructure" Iconic Research And Engineering Journals, vol. 10, no. 2, Aug. 2026
Ken Mudzingwa, Stewart Munyaradzi Nyamutswa, Admore Tafadzwa Mugwadzi, Panashe Yolanda Dhegwa, Munashe Naphtali Mupa (2026). An AI-Resilient Cybersecurity Framework for 5G Telecommunications Networks: Detecting Adversarial Machine Learning, Autonomous Intrusions, and Intelligent Edge Threats in Critical Infrastructure. Iconic Research And Engineering Journals, 10(2).
Ken Mudzingwa, Stewart Munyaradzi Nyamutswa, Admore Tafadzwa Mugwadzi, Panashe Yolanda Dhegwa, Munashe Naphtali Mupa "An AI-Resilient Cybersecurity Framework for 5G Telecommunications Networks: Detecting Adversarial Machine Learning, Autonomous Intrusions, and Intelligent Edge Threats in Critical Infrastructure" Iconic Research And Engineering Journals, vol. 10, no. 2, Aug. 2026.
@article{1722431,
      author = {Ken Mudzingwa, Stewart Munyaradzi Nyamutswa, Admore Tafadzwa Mugwadzi, Panashe Yolanda Dhegwa, Munashe Naphtali Mupa},
      title = {An AI-Resilient Cybersecurity Framework for 5G Telecommunications Networks: Detecting Adversarial Machine Learning, Autonomous Intrusions, and Intelligent Edge Threats in Critical Infrastructure},
      journal = {Iconic Research And Engineering Journals},
      year = {2026},
      volume = {10},
      number = {2},
      pages = {2497-2514},
      issn = {2456-8880},
      url = {https://www.irejournals.com/formatedpaper/1722431.pdf},
      abstract = {Fifth-generation telecommunications networks are becoming a strategic layer of critical infrastructure because they connect public safety, financial systems, healthcare, logistics, energy, industrial control systems and intelligent edge services. The same characteristics that make 5G valuable - ultra-low latency, dense device connectivity, software-defined network functions, network slicing, cloud-native service-based architecture and edge computing - also create an expanded attack surface for adversaries using artificial intelligence. This paper develops an AI-resilient cybersecurity framework for 5G telecommunications networks by integrating 5G security literature, adversarial machine learning research, zero-trust architecture, AI risk management and empirical cyber-incident analytics. The empirical component uses the Kaggle Global Cybersecurity Threats (2015-2024) dataset, comprising 3,000 incident records across 10 countries, 7 industries and 6 attack categories, to model sectoral exposure, telecommunications-specific risk, loss severity and incident-resolution burden. The sample records USD 151.48 billion in aggregate estimated financial loss, 1.51 billion affected-user records and a mean resolution time of 36.48 hours. Telecommunications incidents account for 403 records and USD 20,459.09 million in estimated loss, with man-in-the-middle, DDoS, phishing and malware attacks showing elevated relevance for AI-enabled 5G threat scenarios. Heat-map analysis identifies telecommunications man-in-the-middle attacks as one of the highest AI-5G exposure cells, while random-forest triage demonstrates that affected-user scale, resolution time, year and the constructed AI-5G Exposure Index are the strongest predictors of high-impact incidents in the analytical design. The paper contributes a practical AI-Resilient 5G Cybersecurity Framework built around adversarially robust intrusion detection, zero-trust identity, slice isolation, secure edge orchestration, model-risk governance, threat-informed vulnerability prioritisation, incident-response automation, post-quantum crypto-agility and continuous assurance. The central finding is that 5G security cannot be reduced to conventional perimeter defence; it requires a converged operating model that secures networks, data, machine-learning pipelines, identities, cloud-native functions and critical service continuity together.},
      keywords = {5G security; telecommunications; adversarial machine learning; AI-enabled cyber threats; critical infrastructure; intelligent edge; network slicing; zero trust; intrusion detection; post-quantum cryptography.},
      month = {August},
  }