A Novel Efficient Multiparty Semi-Quantum Secret Sharing Protocol Using Entangled States for Sharing Specific Bits
Mustapha Anis Younes, Sofia Zebboudj, Abdelhakim Gharbi

TL;DR
This paper introduces a new multi-party semi-quantum secret sharing protocol using entangled states and Hadamard operations, enhancing security, efficiency, and control over secret sharing in semi-quantum environments.
Contribution
It presents a novel multi-party SQSS protocol based on Bell states that resists known attacks and operates fully in one-way communication, avoiding expensive quantum devices.
Findings
Secure against double CNOT, intercept-resend, and collective attacks.
Employs a fully one-way communication scheme.
Improves qubit efficiency and control over secret sharing.
Abstract
Recently, Younes et al. proposed an efficient multi-party semi-quantum secret sharing (SQSS) scheme that generalizes Tian et al.'s three-party protocol \cite{Tian2021} to accommodate multiple participants. This scheme retains the original advantages, such as high qubit efficiency and allowing the secret dealer, Alice, to control the message content. However, He et al. \cite{He2024} identified a vulnerability in Tian et al.'s protocol to the double CNOT attack (DCNA), which also affects the generalized scheme. In response, He et al. proposed an improved protocol to address this issue. Despite these improvements, their protocol is limited to two participants and remains a primarily two-way communication scheme, which does not fully prevent the Trojan horse attack without expensive quantum devices such as photon number splitters (PNS) and wavelength filters (WF). To address these issues,…
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Quantum-Dot Cellular Automata · Quantum Information and Cryptography
