Pauli噪声环境下任意二粒子受控短距离隐形传态

doi:10.11896/jsjkx.220700024

Abstract

Abstract: The quantum teleportation is one of the hot topics in the quantum communication.The short-distance teleportation,different from the traditional teleportation,can further save costly quantum entanglement resource based on the restriction in the distance.However,this also increases the probability in terms of cheating for the participants.Therefore,this paper proposes another short-distance quantum teleportation for arbitrary two-particles state scheme with a controller in order to enhance the safety.At the same time,it is impossible for quantum teleportation in an ideal environment,due to a fact that the particle will be ine-vitably affected by the noise channel during the distributing period.This paper also analyzes the influence of Pauli noise,which is a widely used noise channel model,on the fidelity of a two-particles state.As a result,the different concurrence in the two-particles state can generate different fidelity in some typical Pauli noise channel.This research can provide some theoretical value in the aspect of quantum communication network and the experiment research.

Key words: Quantum teleportation, Short-distance, Controller, Safety, Pauli noise, Fidelity

CLC Number:

TP309

XIANG Shengjian. Controlled Short-distance Quantum Teleportation for Arbitrary Two-particles State in Pauli Noise Environment[J].Computer Science, 2023, 50(6A): 220700024-4.

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