Skip to content
Open access

QuantumShield-IoT: A Quantum-Resilient Hybrid Framework for Secure Data Transmission Using Quantum Key Distribution, Lightweight Cryptography and Blockchain Technology

Jul 2026 · International Journal of Innovative Science and Research Technology · 0 citations · 46 references

TL;DR

The proposed Quantum Shield-IoT is a quantum-resilient hybrid security framework that combines the Quantum Key Distribution (QKD) protocol of BB84 with ASCON lightweight authenticated encryption, blockchain security, and cloud computing to ensure secure end-to-end data transmission in IoT.

Abstract

With the growing Internet of Things (IoT), many applications like traffic management, smart cities, environment monitoring, industrial automation and healthcare have been revolutionized. As the number of resourcelimited IoT devices grows and connects with each other, security issues have become more intricate and severe, such as unauthorized access, data tampering, replay attacks, and the rise in threat from quantum computing to traditional cryptographic methods. To solve those problems, this paper proposes Quantum Shield-IoT, which is a quantum-resilient hybrid security framework that combines the Quantum Key Distribution (QKD) protocol of BB84 with ASCON lightweight authenticated encryption, blockchain security, and cloud computing to ensure secure end-to-end data transmission in IoT. The BB84 protocol works both to generate quantum secure cryptographic keys, and to identify eavesdropping via Quantum Bit Error Rate (QBER) analysis. The generated keys are used by ASCON-128 to ensure efficient data confidentiality, integrity and authentication with low computation load, which makes it suitable for resourceconstrained IoT devices. Encrypted data are securely stored in the cloud while the data integrity and traceability of the SHA-256 hash values are ensured by being stored on the blockchain, making them irretrievable. Encrypted data are stored securely in the cloud, while the data integrity and traceability of the hash value ensure irretrievable storage through the blockchain. The proposed framework was implemented using IBM Quantum Qiskit, ASCON-128, blockchain platforms and cloud storage. Experimental results show that quantum bit error rate (QBER) varies from 2.1% to 3.5% for typical communication and 24.8% for eavesdropping attempts, proving reliable QKD. ASCON encryption range was between 8.2 ms and 69.5 ms, and blockchain verification was less than 25 ms for 1,000 transactions with more than 99% of the integrity accuracy. Moreover, the framework achieved an attack detection rate higher than 97.9% in several cyberattacks and hence provided a scalable, light-weight and quantum resistant security solution for next generation IoT ecosystems.

Read PDF

Similar papers

Sep 2026

Quantum-Based Two-Factor Authentication Protocol for Blockchain-Aided Internet-of-Medical-Things

The rapid growth of the Internet-of-Medical-Things (IoMT) and quantum computing presents significant security risks. Quantum algorithms efficiently break traditional public-key encryption, exposing sensitive patient data to long-term threat. Consequently, ensuring robust authentication and long-term security under quan...

Zhao-Feng Huang, Yu-Hong Ke, Xu Yang et al. · 0 citations
Conference Aug 2026

A Comprehensive Review of 5G Security Architecture and Quantum-Safe Communication Using Quantum Key Distribution and Post-Quantum Algorithms

G Network Architecture technology is undergoing a revolution in wireless communication, delivering ultra-high data rates, massive device connectivity, low latency and intelligent network automation, all of which are relevant to smart city, healthcare, autonomous vehicle and industrial IoT applications. But with its dis...

N. S. Alex, T. Jaya, R. Prasad · 0 citations
Open access Jul 2026

A Blockchain-Based Lightweight Authentication Framework for Secure Communication in IoT Networks

A lightweight blockchain-based authentication framework for secure communication in Internet of Things (IoT) networks that integrates a permissioned blockchain with ECC-256 to provide mutual authentication, data integrity, and non-repudiation for resource-constrained IoT devices.

A. Abu-Ein, Obaida M. Al-hazaimeh · 0 citations
Review Open access Jul 2026

Post-Quantum Security Frameworks for Internet of Things Systems: A Layered Narrative Review of Architectures, Protocols, Trust, and Emerging Challenges

The analysis indicates a significant prevalence of lattice-based schemes, hybrid strategies, and integrations with blockchain technology, zero-knowledge proofs, federated learning, homomorphic encryption, AI, and Zero Trust architectures, as well as key gaps remain in side-channel evaluation, migration pathways, deploy...

Rodrigo Jara Espinoza, Yohamin Nafit Pimentel Alarcon, Angelo Taco-Jimenez et al. · 0 citations
Open access Jul 2026

Lightweight Anonymous Group Authentication and Quantum-Cloud Key Distribution Based on PUF for Classical Network Environments

Performance evaluations demonstrate that the proposed lightweight anonymous group authentication scheme outperforms existing comparable schemes in terms of computational cost, communication overhead, and dynamic group management efficiency, demonstrating its potential for resource-constrained IoT environments, pending...

Huanjie Zhang, Yang Chen, Sheng-Hao Chen et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.