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Dive into the research topics where Xin-Wen Wang is active.

Publication


Featured researches published by Xin-Wen Wang.


Quantum Information Processing | 2009

Controlled teleportation against uncooperation of part of supervisors

Xin-Wen Wang; Yu-Huan Su; Guo-Jian Yang

We study the teleportation of an unknown quantum state from a sender (Alice) to a receiver (Bob) via the control of many supervisors (Charlie 1, Charlie 2, . . .) in a network. It has been shown that such a task can be achieved by distributing a GHZ-type entangled state among the participants in advance. In the protocols with GHZ-type entanglement channel, the achievement of teleportation between Alice and Bob is conditioned on the cooperation of all the supervisors. In other words, if anyone of the supervisors does not cooperate, the teleportation will fails. In this paper, we introduce another kind of controlled teleportaton protocol with other types of entangled states acting as the quantum channel, in which the teleportation between Alice and Bob can be realized with high degree of endurance against uncooperation of part of supervisors.


Physical Review A | 2011

Remote information concentration and multipartite entanglement in multilevel systems

Xin-Wen Wang; Deng-Yu Zhang; Guo-Jian Yang; Shi-Qing Tang; Li-Jun Xie

Remote information concentration (RIC) in


Journal of Physics B | 2011

Multiparty hierarchical quantum-information splitting

Xin-Wen Wang; Deng-Yu Zhang; Shi-Qing Tang; Li-Jun Xie

d


Quantum Information Processing | 2009

Simple schemes for quantum information processing with W-type entanglement

Xin-Wen Wang; Guo-Jian Yang; Yu-Huan Su; Min Xie

-level systems (qudits) is studied. It is shown that the quantum information initially distributed in three spatially separated qudits can be remotely and deterministically concentrated to a single qudit via an entangled channel without performing any global operations. The entangled channel can be different types of genuine multipartite pure entangled states which are inequivalent under local operations and classical communication. The entangled channel can also be a mixed entangled state, even a bound entangled state which has a similar form to the Smolin state, but has different features from the Smolin state. A common feature of all these pure and mixed entangled states is found; i.e., they have


Quantum Information Processing | 2018

One-step distillation of local-unitary-equivalent GHZ-type states

Ji-Bing Yuan; Shi-Qing Tang; Xin-Wen Wang; Deng-Yu Zhang

{d}^{2}


Physical Review A | 2008

Generation and discrimination of a type of four-partite entangled state

Xin-Wen Wang; Guo-Jian Yang

common commuting stabilizers. The differences of qudit-RIC and qubit-RIC (


Physical Review A | 2009

Hybrid economical telecloning of equatorial qubits and generation of multipartite entanglement

Xin-Wen Wang; Guo-Jian Yang

d=2


Physical Review A | 2009

Probabilistic ancilla-free phase-covariant telecloning of qudits with the optimal fidelity

Xin-Wen Wang; Guo-Jian Yang

) are also analyzed.


International Journal of Theoretical Physics | 2010

Hierarchical Quantum Information Splitting with Six-Photon Cluster States

Xin-Wen Wang; Deng-Yu Zhang; Shi-Qing Tang; Xiao-Gui Zhan; Kaiming You

We propose a scheme for multiparty hierarchical quantum-information splitting (QIS) with a multipartite entangled state, where a boss distributes a secret quantum state to two grades of agents asymmetrically. The agents who belong to different grades have different authorities for recovering the bosss secret. Except for the bosss Bell-state measurement, no nonlocal operation is involved. The presented scheme is also shown to be secure against eavesdropping. Such a hierarchical QIS is expected to find useful applications in the field of modern multipartite quantum cryptography.


Quantum Information & Computation | 2014

Many-to-one remote information concentration for qudits and multipartite entanglement

Xin-Wen Wang; Shi-Qing Tang; Li-Jun Xie; Deng-Yu Zhang; Le-Man Kuang

Simple schemes are proposed for implementing deterministic teleportation, superdense coding, and quantum information splitting with W-type entangled states. The physical realization of these schemes should be much simpler than previous ones due to the assistance of an auxiliary particle. We illustrate the ideas in cavity quantum electrodynamics. The important features of our schemes can also be demonstrated in other systems.

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Shi-Qing Tang

Hengyang Normal University

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Deng-Yu Zhang

Hengyang Normal University

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Li-Jun Xie

Hengyang Normal University

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Guo-Jian Yang

Beijing Normal University

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Xiao-Gui Zhan

Hengyang Normal University

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Feng Gao

Hengyang Normal University

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Ji-Bing Yuan

Hengyang Normal University

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Yu-Huan Su

Beijing Normal University

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Kaiming You

Hengyang Normal University

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Le-Man Kuang

Hunan Normal University

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