Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

理论物理通讯:英文版

Teleportation of an Unknown Atomic State via Adiabatic Passage

Sai Ye

Published Jan 1, 2007• 0 citations
OpenAlex

Abstract

We propose a scheme for teleporting an unknown atomic state via adiabatic passage.Taking advantage of adiabatic passage,the atom has no probability of being excited and thus the atomic spontaneous emission is suppressed. We also show that the fidelity can reach I under certain condition.

Related papers

Teleportation of an Unknown Atomic State via Adiabatic Passage

Sai-Yun Ye

We propose a scheme for teleporting an unknown atomic state via adiabatic passage. Taking advantage of adiabatic passage, the atom has no probability of being excited and thus the atomic spontaneous emission is suppressed. We also show that the fidelity can reach 1 under certain condition.

Communications in Theoretical Physics•Nov 1, 2007•0 citations

Implementing entanglement teleportation via adiabatic passage

Chen Zhi-Hua, Lin Xiu-Min, Chen Mei-Ying +2 more

This paper proposes a scheme for implementing teleportation of an entangled state of two trapped atoms through adiabatic passage and photonic interference. The scheme is robust against certain noise such as atomic spontaneous emission and the detector inefficiency.

Chinese Physics•May 1, 2007•2 citations

Quantum state transfer via adiabatic passage

Chen Mei-Ying, Xiu‐Min Lin, Zhihua Chen

Based on adiabatic passage, we propose a scheme for implementing the quantum transfer of an unknown atomic state. In our scheme, we utilize photons for ideal quantum transmission between two cavities with the successful probability being about 1. Meanwhile, the scheme is robust against the effects of atomic spontaneous emission. It may be useful for transferring quantum information among spatially distant atoms.

Chinese Physics•Jan 24, 2007•2 citations

Generation and concentration of atomic entangled state via adiabatic evolution

Sai-Yun Ye

Based on the idea of adiabatic evolution, we propose two probabilistic but simple schemes for generating maximally entangled states for two distant atoms and concentrating unknown atomic entangled states. Taking advantage of adiabatic passage, the atoms have no probability of being excited and thus the atomic spontaneous emission is suppressed. Furthermore, in the two schemes accurate adjustment of the interaction time is not required.

Chinese Physics•Oct 1, 2007•5 citations

Transfer of Quantum Information via Adiabatic Passage

Xiu‐Min Lin

Based on adiabatic passage,transfers of an unknown state of one atom,entangled state of two-atom and GHZ state are realized,where only one vacuum-cavity is needed.In these schemes,since the quantum information is encoded in atomic ground states,the system evolves in the dark state space,and there is no population in the atomic excited state,atomic spontaneous emission is suppressed effectively.Compared with previous proposals,the schemes need less resource and easier operation.In addition,the feasibility for experiment is discussed.

Acta Sinica Quantum Optica•Jan 1, 2011•0 citations

Transferring a Multi-atom Entangled State via Adiabatic Passage

Lin Xiu, Chen Mei-Ying, Xiu‐Min Lin +2 more

We present a scheme for transferring atomic entangled states via adiabatic passage. In the scheme, we use photons to achieve efficient quantum transmission among spatially distant atoms. The probability of the successful transferring quantum state approaches 1. Meanwhile, the scheme is robust against the effects of atomic spontaneous emission.

Communications in Theoretical Physics•May 1, 2007•1 citation
Based on adiabatic passage,transfers of an unknown state of one atom,entangled state of two-atom and GHZ state are realized,where only one vacuum-cavity is needed.In these schemes,since the quantum information is encoded in atomic ground states,the system evolves in the dark state space,and there is no population in the atomic excited state,atomic spontaneous emission is suppressed effectively.Compared with previous proposals,the schemes need less resource and easier operation.In addition,the feasibility for experiment is discussed.