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Bridging the Practice Gap: An AI-Integrated Cybersecurity Pedagogy for Developing Operational Readiness
DOI: https://doi.org/10.62381/H251C06
Author(s)
Li Song*, Li Jianfeng, Zeng Haowen
Affiliation(s)
School of Information Engineering, Nanning College of Technology, Guilin , China *Corresponding Author
Abstract
As cyber threats have become increasingly sophisticated in 2025, the gap between theoretical knowledge and practical application in cybersecurity education has widened into a critical chasm. Traditional teaching methods, often reliant on static textbooks and predictable laboratory exercises, frequently produce graduates with a condition best described as "strong theory but weak hands-on skills." These students, while well-versed in concepts, struggle to apply their knowledge in dynamic, real-world scenarios, leaving them unprepared for the modern security operations center. This paper proposes a novel pedagogical framework integrated with Artificial Intelligence, termed the "AI-Cyber-Praxis" framework, designed specifically to address this skills gap. By leveraging specialized, fine-tuned Large Language Models as personalized, 24/7 pedagogical tutors and utilizing advanced AI-driven Automated Penetration Testing tools within highly dynamic virtual cyber ranges, the proposed model creates an adaptive, high-intensity, and deeply engaging learning environment. This framework shifts the traditional passive teaching mode, compelling students into active, real-time confrontation with intelligent, evolving threats. The research demonstrates that the integration of AI-enhanced feedback loops, Socratic-style guidance, and personalized challenge generation significantly improves students' critical thinking, problem-solving capabilities, and technical proficiency in core cybersecurity competencies.
Keywords
AI-Enhanced Cybersecurity Education; Large Language Models; Adaptive Cyber Ranges; Hands-On Skill Development; Automated Penetration Testing
References
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