Innovative Research Award
Zied Guitouni — Faculty of Sciences of Monastir, Tunisia
| Zied Guitouni | |
|---|---|
| Affiliation | Faculty of Sciences of Monastir |
| Country | Tunisia |
| Scopus ID | 24766321800 |
| Documents | 9 |
| Citations | 27 |
| h-index | 3 |
| Subject Area | Cryptography |
| Event | Global Tech Excellence Awards |
| ORCID | 0000-0002-5707-134X |
Zied Guitouni is a researcher affiliated with the Faculty of Sciences of Monastir, Tunisia, whose research activity is centered on cryptography and security-oriented computing. His work addresses contemporary challenges involving blockchain, Internet of Things security, intrusion detection, medical image protection, and emerging quantum-inspired encryption approaches, reflecting an interdisciplinary direction within cybersecurity research. [1] [2] [3]
Contents
Abstract
Zied Guitouni’s research profile reflects a focused contribution to cryptography and cybersecurity, with applications spanning blockchain-enabled Internet of Things systems, smart-city intrusion detection, and medical image protection. His published work explores security architectures, lightweight machine-learning methods, and quantum chaotic techniques for addressing evolving digital threats. These studies connect cryptographic principles with practical requirements for connected infrastructures and sensitive information systems. The combination of security engineering, intelligent detection, blockchain technologies, and advanced encryption demonstrates a research direction responsive to emerging cybersecurity challenges. His publication record provides evidence of continuing engagement with applied security research and interdisciplinary technological development. [1] [2] [3]
Keywords
Cryptography; cybersecurity; blockchain; Internet of Things; intrusion detection; smart cities; medical image encryption; quantum chaos; information security; lightweight security systems; applied cryptography.
Introduction
Modern connected environments require security mechanisms capable of protecting distributed devices, digital infrastructures, and sensitive information against increasingly sophisticated threats. Guitouni’s research addresses these requirements through cryptographic engineering and cybersecurity applications involving blockchain, IoT, intelligent intrusion detection, and medical image encryption, linking theoretical security principles with practical technological contexts. [1] [2] [3]
Research Profile
The researcher’s profile is characterized by applied cryptography and cybersecurity studies addressing multiple digital environments. His work encompasses elliptic-curve cryptographic implementation, blockchain-based IoT security, neural-network-supported intrusion detection, and encryption techniques for medical imagery. This range indicates an interdisciplinary research orientation combining cryptographic methods, intelligent computing, network protection, and application-specific security requirements. [1] [2] [3]
Research Contributions
The reported contributions include advanced VLSI implementation of ECDSA for blockchain-oriented IoT applications, a lightweight feed-forward neural-network approach for smart-city intrusion detection, and quantum chaotic techniques for medical image encryption. Collectively, these studies investigate computational efficiency, network threat detection, and data confidentiality, demonstrating practical applications of cryptographic and security technologies. [1] [2] [3]
Publications
The publication record supplied for this recognition profile includes studies published in Springer journals covering blockchain-based IoT security, smart-city cybersecurity, and medical image encryption. The subjects demonstrate continuity around applied security, while the methodological approaches range from VLSI cryptographic implementation and neural-network intrusion detection to quantum chaotic encryption, reflecting diverse technical strategies. [1] [2] [3]
Research Impact
The potential impact of this research lies in its relevance to security-sensitive technological domains. Efficient cryptographic hardware can support constrained IoT environments, lightweight intrusion detection can contribute to smart-city protection, and advanced image encryption can strengthen confidentiality for medical information. These application areas position the work within important contemporary cybersecurity priorities. [1] [2] [3]
Award Suitability
The research profile is suitable for consideration for an Innovative Research Award because it demonstrates application-oriented work across several cybersecurity challenges. The combination of cryptographic hardware, intelligent intrusion detection, blockchain security, and advanced encryption illustrates technical breadth and innovation-oriented problem solving. The publications also provide identifiable scholarly evidence supporting the relevance of this research direction. [1] [2] [3]
Conclusion
Zied Guitouni’s documented research presents a coherent focus on cryptography and cybersecurity with applications in IoT, blockchain, smart cities, and medical information protection. His studies combine hardware implementation, machine learning, and advanced encryption techniques, establishing a multidisciplinary foundation for continued research addressing practical security challenges across emerging digital technologies. [1] [2] [3]
External Links
- ORCID Profile
- Scopus Author Profile
- DOI — Quantum Chaotic Medical Image Encryption
- Global Tech Excellence Awards
References
- Guitouni, Z. (2026). Advanced VLSI ECDSA design for real-time blockchain-based IoT system applications. Journal of Electrical Systems and Information Technology.
https://link.springer.com/article/10.1007/s44291-026-00172-4 - Guitouni, Z. (2025). A lightweight FFNN-based intrusion detection system for smart city cybersecurity. Journal of Supercomputing.
https://link.springer.com/article/10.1007/s11227-025-08031-x - Guitouni, Z. (2025). Quantum chaotic techniques for medical image encryption in next-generation IoMT applications. Journal of Supercomputing.
https://link.springer.com/article/10.1007/s11227-025-07574-3