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Ibrahim Almazyad

Publications and source records attributed to Ibrahim Almazyad.

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Federated Cybersecurity Testbed as a Service (FCTaaS): A framework to federate cybersecurity testbeds

Rapid technological change is reshaping society through emerging domains such as autonomous vehicles and smart manufacturing, creating new research challenges in system design, operation, security, and training. Researchers often rely on testbeds to reproduce experimental scenarios, collect and analyze data, observe system behavior, and evaluate proposed solutions. However, the fast pace of innovation makes it difficult and costly for individual testbeds to remain representative of state-of-the-art systems, as doing so requires frequent upgrades and new capabilities. Moreover, access to specialized testbeds is often limited to a small group of researchers, leaving valuable infrastructure underutilized during its operational lifetime. This paper presents FCTaaS, a Federated Cybersecurity Testbed as a Service framework that enables heterogeneous cybersecurity testbeds to participate in a single experiment across geographical boundaries. By connecting independently managed testbeds through a Virtual Private Network (VPN), FCTaaS supports remote testbed discovery, experiment design, and coordinated experimentation. We evaluate FCTaaS across three case studies involving denial-of-service scenarios on smart infrastructure and intrusion detection and prevention workflows using a Suricata-based IDS/IPS testbed. The results show that FCTaaS enables effective cross-testbed experimentation while preserving visibility into attack traffic, IDS alerts, and detection-system resource stress. Even under resource-intensive attack scenarios, FCTaaS achieves limiting network utilization of 49%, introduces only 1% overhead, and supports latency ranging from 5.63 ms between local nodes to 147 ms between geographically dispersed nodes.

cs.CR

QSAFE-V: Quantum-Enhanced Lightweight Authentication Protocol Design for Vehicular Tactile Wireless Networks

With the rapid advancement of 6G technology, the Tactile Internet is emerging as a novel paradigm of interaction, particularly in intelligent transportation systems, where stringent demands for ultra-low latency and high reliability are prevalent. During the transmission and coordination of autonomous vehicles, malicious adversaries may attempt to compromise control commands or swarm behavior, posing severe threats to road safety and vehicular intelligence. Many existing authentication schemes claim to provide security against conventional attacks. However, recent developments in quantum computing have revealed critical vulnerabilities in these schemes, particularly under quantum-enabled adversarial models. In this context, the design of a quantum-secured, lightweight authentication scheme that is adaptable to vehicular mobility becomes essential. This paper proposes QSAFE-V, a quantum-secured authentication framework for edge-enabled vehicles that surpasses traditional security models. We conduct formal security proofs based on quantum key distribution and quantum adversary models, and also perform context-driven reauthentication analysis based on vehicular behavior. The output of quantum resilience evaluations indicates that QSAFE-V provides robust protection against quantum and contextual attacks. Furthermore, detailed performance analysis reveals that QSAFE-V achieves comparable communication and computation costs to classical schemes, while offering significantly stronger security guarantees under wireless Tactile Internet conditions.

math.QA