Cyber Twin Technology for AI-Driven Real-Time Software Security in IoT Ecosystems

As Internet of Things (IoT) ecosystems grow more complex, ensuring real-time security has become a major challenge. Traditional security approaches are insufficient for handling dynamic and interconnected IoT networks, which are increasingly targeted by sophisticated cyber-attacks. To address these issues, new methodologies that combine real-time monitoring and adaptive security mechanisms are needed. Cyber Twin technology, an innovative extension of digital twin technology, presents a promising solution by creating AI-driven digital replicas of IoT devices and software systems for continuous security monitoring and management. This paper introduces a Cyber Twin Technology Framework for AI-driven real-time software security in IoT ecosystems. The framework employs advanced AI models, including Convolutional Neural Networks (CNNs) for anomaly detection and Generative Adversarial Networks (GANs) for synthetic data generation to simulate potential attack scenarios. A dynamic reinforcement learning module is integrated to optimize threat response strategies based on evolving threat patterns. By creating real-time digital replicas of IoT components, the Cyber Twin framework continuously monitors device behaviors, identifies anomalies, and autonomously initiates mitigation actions. The system is evaluated in a simulated IoT environment with over 500 interconnected devices. Experimental results demonstrate that the Cyber Twin framework achieved a 99.2% detection accuracy in identifying cyber threats, with a false positive rate of 1.3%. The dynamic response module reduced incident response time by 35% compared to traditional methods, enhancing the system's ability to neutralize potential threats in real-time. The use of GAN-based synthetic data also enabled proactive defense strategies, reducing attack success rates by 40% during testing. The Cyber Twin Technology Framework provides a robust solution for real-time software security in complex IoT ecosystems. By leveraging AI models and digital replicas, the framework enhances threat detection, optimizes response strategies, and offers a scalable approach to maintaining the security of interconnected devices and software systems. The high detection accuracy and reduced response times validate the effectiveness of Cyber Twin technology in addressing the dynamic security challenges of IoT environments. Future research will explore expanding the Cyber Twin's capabilities to support multi-cloud environments and integrating additional AI techniques to further improve its adaptability and resilience.

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Published
2024-12-04
DOI
https://doi.org/10.1109/icmnwc63764.2024.10872137
Citations
2
Primary Topic
Digital Transformation in Industry
Type
article
Field-Weighted Citation Impact
0.70
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article

Cyber Twin Technology for AI-Driven Real-Time Software Security in IoT Ecosystems

Nayana Yadav M, Gulshan Dhasmana, Rajendran Shankar, Kolipaka Ravi et al.
2 citations
Digital Transformation in Industry
0.70
article

Cyber Twin Technology for AI-Driven Real-Time Software Security in IoT Ecosystems

Nayana Yadav M, Gulshan Dhasmana, Rajendran Shankar, Kolipaka Ravi, Ishan Desai, Krishna Chaitanya Sunkara
article en
2 citations

Abstract

As Internet of Things (IoT) ecosystems grow more complex, ensuring real-time security has become a major challenge. Traditional security approaches are insufficient for handling dynamic and interconnected IoT networks, which are increasingly targeted by sophisticated cyber-attacks. To address these issues, new methodologies that combine real-time monitoring and adaptive security mechanisms are needed. Cyber Twin technology, an innovative extension of digital twin technology, presents a promising solution by creating AI-driven digital replicas of IoT devices and software systems for continuous security monitoring and management. This paper introduces a Cyber Twin Technology Framework for AI-driven real-time software security in IoT ecosystems. The framework employs advanced AI models, including Convolutional Neural Networks (CNNs) for anomaly detection and Generative Adversarial Networks (GANs) for synthetic data generation to simulate potential attack scenarios. A dynamic reinforcement learning module is integrated to optimize threat response strategies based on evolving threat patterns. By creating real-time digital replicas of IoT components, the Cyber Twin framework continuously monitors device behaviors, identifies anomalies, and autonomously initiates mitigation actions. The system is evaluated in a simulated IoT environment with over 500 interconnected devices. Experimental results demonstrate that the Cyber Twin framework achieved a 99.2% detection accuracy in identifying cyber threats, with a false positive rate of 1.3%. The dynamic response module reduced incident response time by 35% compared to traditional methods, enhancing the system's ability to neutralize potential threats in real-time. The use of GAN-based synthetic data also enabled proactive defense strategies, reducing attack success rates by 40% during testing. The Cyber Twin Technology Framework provides a robust solution for real-time software security in complex IoT ecosystems. By leveraging AI models and digital replicas, the framework enhances threat detection, optimizes response strategies, and offers a scalable approach to maintaining the security of interconnected devices and software systems. The high detection accuracy and reduced response times validate the effectiveness of Cyber Twin technology in addressing the dynamic security challenges of IoT environments. Future research will explore expanding the Cyber Twin's capabilities to support multi-cloud environments and integrating additional AI techniques to further improve its adaptability and resilience.

Oracle (United States) (US), Symbiosis International University (IN), Graphic Era University (IN), Parul University (IN)
Responsible consumption and production
Openalex Percentile: Top 23%
Digital Transformation in Industry
0.70
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