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

International Journal of Theoretical Physics

Three-Party Quantum Network Communication Protocols Based on Quantum Teleportation

Nanrun Zhou, Hu-Lai Cheng, Li-Hua Gong, Chisheng Li

Published Dec 12, 2013• 4 citations
Publisher
DOI
10.1007/s10773-013-1936-1

Related papers

Protocols for three-party quantum teleportation using Heisenberg XX model

Kun-Sang Lee, Yeonjoo Choi, Younghun Kwon

Chaos Solitons & Fractals•May 12, 2006•2 citations

Asymmetric two-way Controlled Quantum Teleportation in Quantum Network

Nikhita Singh, Ravi Shankar Singh

Quantum teleportation with optimum quantum resources and hardware in a quantum network poses a pressing and demanding need. Here, we offer a protocol for asymmetric two-way controlled quantum teleportation via employing a sixteen-qubit entangled state as a resource in a quantum network consisting of five communicating participants Alice, Bob1, Bob2, Bob3and Eve. Our protocol is designed so that a sending party (Alice) transmit its three single information-qubits to three different parties Bob1, Bob2& Bob3, respectively and at the mean time, these three parties (Bob1, Bob2& Bob3) send their Bell-like information-qubits back to the sender (Alice) under the supervision of administrator (Eve) by invoking projective Bell State measurements, GHZ-state measurements and X-basis measurements and local unitary operations. Furthermore, we have analyzed intrinsic efficiency of the protocol and compare our scheme with other competitive protocols.

International Conference on Signal Processing and Advance Research in Computing (SPARC)•Sep 12, 2024•0 citations

Two-to-one quantum teleportation protocol and its application

C.Y. Chen, Chih-Cheng Hsueh, Ching-Fang Hsu

Chaos Solitons & Fractals•Oct 21, 2006•3 citations

Simultaneous Quantum Teleportation within a Quantum Network

Vikram Verma, Ravi Shankar Singh

International Journal of Theoretical Physics•Jul 14, 2022•11 citations

Symmetric-Cyclic Bidirectional Quantum Teleportation of Bell-like State via Entanglement-Swapping

Nikhita Singh, Ravi Shankar Singh

Quantum teleportation is a primitive foundational protocol for exchanging quantum information in a quantum network as well as infrastructural operational strategy in the measurement-based quantum computation. Designing an efficient scheme for quantum teleportation is a vibrant field of intensive research. We propose a scheme wherein Bell-like states are being exchanged simultaneously in cyclic sequence, i.e., symmetric-cyclic bi-directional quantum teleportation, amongst three communicating parties forming a quantum network, Alice, Bob and Charlie via entanglement-swapping with the aid of a cluster of three maximally entangled GHZ-states as the quantum channel. Moreover, based upon communication- and operation- complexity, we compare our protocol with other equivalent protocols and found that the intrinsic efficiency of our protocol is maximum pegging at 33.33%.

arXiv:2410.03709•Sep 26, 2024•0 citations

TERNARY QUANTUM LOGIC APPROACHES FOR CONTROLLED TELEPORTATION VIA ENTANGLEMENT SWAPPING

Muhammad Ali

Quantum teleportation stands as a cornerstone of quantum communication, enabling the transmission of an unknown quantum state—typically a qubit—from a sender to a receiver without the physical transfer of the particle itself. In this study, we explore two novel teleportation protocols within the framework of ternary quantum logic, which extends conventional binary systems by incorporating three distinct quantum states, known as qutrits. This ternary paradigm introduces richer computational possibilities and more nuanced entanglement structures compared to binary logic. Both protocols incorporate a supervisory controller to regulate the transmission. The first proposed scheme utilizes entanglement swapping between two qutrits to achieve the teleportation of a qutrit. This approach demonstrates the feasibility of ternary teleportation using minimal entangled resources. The second scheme builds upon this foundation by employing entanglement swapping among three qutrits, offering enhanced control. In the second scheme, the controller remains actively embedded in the quantum circuit throughout the protocol, with the authority to abort or validate the teleportation either at the beginning of protocol or at the end, thereby introducing dynamic control. Direct entanglement between distant parties like Alice and Bob is often infeasible due to channel noise and losses, but using an intermediary party who shares entangled pairs with each party, enables long-distance entanglement, which is crucial for scalable quantum networks and quantum repeaters. This modular approach not only enhances the security and reliability of quantum communication by managing errors locally but also offers flexibility and practicality in real-world systems by facilitating entanglement through local intermediaries.

International Journal of Apllied Mathematics•Nov 16, 2025•0 citations
Quantum teleportation with optimum quantum resources and hardware in a quantum network poses a pressing and demanding need. Here, we offer a protocol for asymmetric two-way controlled quantum teleportation via employing a sixteen-qubit entangled state as a resource in a quantum network consisting of five communicating participants Alice, Bob1, Bob2, Bob3and Eve. Our protocol is designed so that a sending party (Alice) transmit its three single information-qubits to three different parties Bob1, Bob2& Bob3, respectively and at the mean time, these three parties (Bob1, Bob2& Bob3) send their Bell-like information-qubits back to the sender (Alice) under the supervision of administrator (Eve) by invoking projective Bell State measurements, GHZ-state measurements and X-basis measurements and local unitary operations. Furthermore, we have analyzed intrinsic efficiency of the protocol and compare our scheme with other competitive protocols.
Quantum teleportation is a primitive foundational protocol for exchanging quantum information in a quantum network as well as infrastructural operational strategy in the measurement-based quantum computation. Designing an efficient scheme for quantum teleportation is a vibrant field of intensive research. We propose a scheme wherein Bell-like states are being exchanged simultaneously in cyclic sequence, i.e., symmetric-cyclic bi-directional quantum teleportation, amongst three communicating parties forming a quantum network, Alice, Bob and Charlie via entanglement-swapping with the aid of a cluster of three maximally entangled GHZ-states as the quantum channel. Moreover, based upon communication- and operation- complexity, we compare our protocol with other equivalent protocols and found that the intrinsic efficiency of our protocol is maximum pegging at 33.33%.
Quantum teleportation stands as a cornerstone of quantum communication, enabling the transmission of an unknown quantum state—typically a qubit—from a sender to a receiver without the physical transfer of the particle itself. In this study, we explore two novel teleportation protocols within the framework of ternary quantum logic, which extends conventional binary systems by incorporating three distinct quantum states, known as qutrits. This ternary paradigm introduces richer computational possibilities and more nuanced entanglement structures compared to binary logic. Both protocols incorporate a supervisory controller to regulate the transmission. The first proposed scheme utilizes entanglement swapping between two qutrits to achieve the teleportation of a qutrit. This approach demonstrates the feasibility of ternary teleportation using minimal entangled resources. The second scheme builds upon this foundation by employing entanglement swapping among three qutrits, offering enhanced control. In the second scheme, the controller remains actively embedded in the quantum circuit throughout the protocol, with the authority to abort or validate the teleportation either at the beginning of protocol or at the end, thereby introducing dynamic control. Direct entanglement between distant parties like Alice and Bob is often infeasible due to channel noise and losses, but using an intermediary party who shares entangled pairs with each party, enables long-distance entanglement, which is crucial for scalable quantum networks and quantum repeaters. This modular approach not only enhances the security and reliability of quantum communication by managing errors locally but also offers flexibility and practicality in real-world systems by facilitating entanglement through local intermediaries.