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Quantum-Resistant Strategies In Securing IoT

Mahima Nagaraj Hiregange, Khushi S Javali, Ravikumar Haritha, Y Vidya, R. Lakshmi, B M Devaraju

Published Jan 1, 2024• 0 citations
Publisher
DOI
10.2139/ssrn.4903202

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The Narrow Band Internet of Things (NB-IoT) paradigm has become a central point of the 5G networks. Though the NB-IoT mechanism has progressively been incorporated in the conventional LTE networks, notably the 5G network-based NB-IoT scheme realizes certain security breaches in recent times. Hence, the need for effective authentication and data transmission scheme is much more vital for security enhancement. Conventional security schemes follow both symmetric and asymmetric cryptographic techniques such as AES, ECC, DES and many other famous algorithms to assist in preventing against data security issues. All of these cryptographic techniques are inadequate to give protect against quantum attacks. This study plan to propose a secure quantum-resistant data transmission strategy and authentication for a 5G based NB-IoT scheme. The proposed method follows the implementation of data transmission strategy and access authentication concurrently for NB-IoT devices based on lattice-based attribute and fully homomorphic encryption techniques. The proposed scheme will not just minimize the network overhead but also provide robust security with privacy shielding and anti-quantum capability.
The imminent arrival of quantum computing presents unprecedented challenges to Internet of Things (IoT) security, threatening to compromise the cryptographic protocols that safeguard billions of connected devices worldwide. This article examines the critical intersection of quantum computing capabilities and IoT vulnerabilities, with particular emphasis on resource-constrained devices, heterogeneous networks, and legacy system integration. This article presents a comprehensive framework for implementing quantum-resistant security measures in IoT environments, introducing a hybrid approach that combines lightweight quantum-resistant algorithms with modular architecture design. This article demonstrates traditional encryption methods like RSA and ECC remain vulnerable to quantum attacks; strategic implementation of lattice-based and hash-based cryptography can provide robust protection without overwhelming device resources. This article also addresses practical considerations for industry adoption, including development lifecycle integration, governance frameworks, and compliance requirements. Through examination of real-world implementation scenarios, this article establishes a successful quantum-resistant IoT security required for a balanced approach between immediate protective measures and long-term strategic planning, providing organizations with actionable guidelines for securing their IoT infrastructure against quantum threats.