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

IEEE International Conference on Nanotechnology (IEEE-NANO)

Reversible quantum circuits and quantum transmission integrity

Tien-Sheng Lin, Chia-Hung Chien, Ting-Hsu Chang, Shih‐Yi Yuan, Sy‐Yen Kuo

Published Aug 1, 2011• 3 citations
Publisher

Abstract

This paper proposes a novel work to design reversible quantum circuits. The function of this circuit is to investigate quantum transmission integrity in the quantum communication networks. This work is to verify quantum transmission sequence of a quantum frame by using reversible quantum model. This model designs control module to derive the correlation between two quantum strings: quantum input sequence and quantum output sequence. If a quantum frame reserves the correlation, then we can obtain quantum transmission sequence. So, quantum transmission integrity of a quantum frame can be verified.

DOI
10.1109/nano.2011.6144564

Related papers

Quantum circuits and quantum message integrity

Tien-Sheng Lin, Ting-Hsu Chang, Chia-Hung Chien +1 more

In the wireless communication networks, quantum message integrity can be applied with quantum authentication and quantum signature if the source and destination are indirect communication. Eavesdroppers and malicious nodes may exist in the routing path from the source to the destination. There is major threat in the indirect communication. Based on quantum nature, we design quantum permutation model to verify quantum transmission sequence of a quantum transmission frame if an attacker wants to crack the content of a quantum transmission frame. Quantum permutation model can determine the real position of data qubits and verification qubits. However, Eves is not able to obtain the position of date qubits because quantum permutation switching cannot be owned by Eve. So quantum transmission sequence can be reserved. The receiver has the capability to verify it and obtains the content of data qubits.

IEEE International Carnahan Conference on Security Technology (ICCST)•Oct 1, 2011•3 citations

Quantum blind signature based on quantum circuit

Tien-Sheng Lin, Yanlin Chen, Ting-Hsu Chang +2 more

Quantum circuit is a reversible circuit that can be designed the control module to derive the correlation between quantum input sequence and quantum output sequence. In addition, in this paper we use the control module of the quantum circuit to verify the equivalence of the quantum state such that quantum blind signature can achieve the security requirement of the signature scheme and resist eavesdropping from the outsider. The core concept of the proposed signature is based on the correlation of quantum entangled state to investigate that the message string and the signatory string is consistent. In regard to the security, the blindness and the failure of eavesdropping can be preserved by this work. The proposed signature can achieve impossibility of forgery and impossibility of disavowal.

IEEE International Conference on Nanotechnology (IEEE-NANO)•Aug 1, 2014•7 citations

Quantum switching and quantum string matching

Tien-Sheng Lin, Chin-Yung Lu, Sy‐Yen Kuo

Applications of quantum string matching can be found in quantum signature scheme and quantum fingerprinting. The major benefit of these applications is computation complexity. Quantum Boolean circuits can check the equivalence function: all in puts are quantum digital state. However, it is difficult to verify quantum strings if all input qubits are quantum superposition state. Quantum switching could be reversible circuits. These circuits have two major benefits: information lossless and energy saving. In this paper, we use quantum circuits to design the control module that can verify the equivalence of quantum strings and satisfy the following condition: all inputs qubits could be quantum superposition state. In the pro posed circuits, the control module can form a special correlation between input sequence and output sequence. This correlation can design the equivalence function of quantum strings to solve the problem: input strings with superposition. In regard to the performance, the scalability of the proposed circuits can be achieved.

IEEE International Conference on Nanotechnology (IEEE-NANO)•Aug 1, 2010•6 citations

Quantum Transmission Integrity Mechanism for Indirect Communication

Tien-Sheng Lin, I-Ming Tsai, Sy‐Yen Kuo

Quantum communication networks need to securely transmit a quantum frame from source to destination. In the wireless communication network, source and destination have two types of connection: direct or indirect communication. In the direct connected mode, the transmission security can be achieved by using a quantum key distribution. In the indirect connected mode, it is a difficult problem to deal with the unsafe routing path from source to destination due to eavesdropping and man- in-the-middle attack. In this paper, we propose a quantum mechanism that designs a flexible quantum frame to achieve transmission integrity. This frame uses a quantum correlated key to let the receiver has the capability to judge whether the received quantum frame is secure or not. This mechanism provides a new solution to solve the transmission security in the unsafe routing path.

International Conference on Computer Communications and Networks (ICCCN)•Aug 1, 2009•4 citations

Seven quantum channel coding and error correction

X Chen

While the communication between two sites in the quantum network is carried out,the data frames should be resent once the bit-reversed errors appear.Although this method can guarantee the accuracy of data,the pressure of channel is increased and the communication efficiency is reduced.In order to relieve the pressure of channel,the present quantum bit-reversed error correction circuits were analyzed and improved based on the replication of entanglement and the teleportation to design the seven-particle entanglement of quantum bit-reversed error correction circuits.This improvement can not correct more than three bit-reversed quantum states or phase flip error.The efficiency of protocol and utilization of channels before and after the improvement were compared,and the results show that the latter has higher data transmission utilization and it can supply reference evidence for multi-particle error correction.

Chinese Journal of Quantum Electronics•Jan 1, 2013•0 citations

A Novel Design of Quantum 3:8 Decoder Circuit using Reversible Logic for Improvement in Key Quantum Circuit Design Parameters

Seyyed Mohammad Amir Mirizadeh, Mohammad Mahdi Emadi Kouchak, Mohammad Mehdi Panahi

quantum computing is the emerging technology in the new era and is very promising, not only quantum computers substantially accelerate what classical computers are able to do nowadays but they are also capable of providing answers that classical computers never could. Using reversible logic in designing quantum circuits has many advantages such as lowering power consumption, reducing heat dissemination, and decreasing quantum cost, ancilla inputs, and garbage outputs that lead to even higher performance in quantum computers. Decoders have many utilizations in digital circuits any function in form of SOP or POS can be implemented using decoders, counters, and ROMs have also used decoder modules in their designs in this article two novel designs for 2:4 and 3:8 decoder have been proposed that has been proved to have less quantum cost, unused outputs, and ancilla inputs when it comes to comparison with recent researches that have been done concerning this field.

International Computer Conference, Computer Society of Iran (CSICC)•Mar 3, 2021•4 citations
This paper proposes a novel work to design reversible quantum circuits. The function of this circuit is to investigate quantum transmission integrity in the quantum communication networks. This work is to verify quantum transmission sequence of a quantum frame by using reversible quantum model. This model designs control module to derive the correlation between two quantum strings: quantum input sequence and quantum output sequence. If a quantum frame reserves the correlation, then we can obtain quantum transmission sequence. So, quantum transmission integrity of a quantum frame can be verified.
In the wireless communication networks, quantum message integrity can be applied with quantum authentication and quantum signature if the source and destination are indirect communication. Eavesdroppers and malicious nodes may exist in the routing path from the source to the destination. There is major threat in the indirect communication. Based on quantum nature, we design quantum permutation model to verify quantum transmission sequence of a quantum transmission frame if an attacker wants to crack the content of a quantum transmission frame. Quantum permutation model can determine the real position of data qubits and verification qubits. However, Eves is not able to obtain the position of date qubits because quantum permutation switching cannot be owned by Eve. So quantum transmission sequence can be reserved. The receiver has the capability to verify it and obtains the content of data qubits.
Quantum circuit is a reversible circuit that can be designed the control module to derive the correlation between quantum input sequence and quantum output sequence. In addition, in this paper we use the control module of the quantum circuit to verify the equivalence of the quantum state such that quantum blind signature can achieve the security requirement of the signature scheme and resist eavesdropping from the outsider. The core concept of the proposed signature is based on the correlation of quantum entangled state to investigate that the message string and the signatory string is consistent. In regard to the security, the blindness and the failure of eavesdropping can be preserved by this work. The proposed signature can achieve impossibility of forgery and impossibility of disavowal.
Applications of quantum string matching can be found in quantum signature scheme and quantum fingerprinting. The major benefit of these applications is computation complexity. Quantum Boolean circuits can check the equivalence function: all in puts are quantum digital state. However, it is difficult to verify quantum strings if all input qubits are quantum superposition state. Quantum switching could be reversible circuits. These circuits have two major benefits: information lossless and energy saving. In this paper, we use quantum circuits to design the control module that can verify the equivalence of quantum strings and satisfy the following condition: all inputs qubits could be quantum superposition state. In the pro posed circuits, the control module can form a special correlation between input sequence and output sequence. This correlation can design the equivalence function of quantum strings to solve the problem: input strings with superposition. In regard to the performance, the scalability of the proposed circuits can be achieved.
Quantum communication networks need to securely transmit a quantum frame from source to destination. In the wireless communication network, source and destination have two types of connection: direct or indirect communication. In the direct connected mode, the transmission security can be achieved by using a quantum key distribution. In the indirect connected mode, it is a difficult problem to deal with the unsafe routing path from source to destination due to eavesdropping and man- in-the-middle attack. In this paper, we propose a quantum mechanism that designs a flexible quantum frame to achieve transmission integrity. This frame uses a quantum correlated key to let the receiver has the capability to judge whether the received quantum frame is secure or not. This mechanism provides a new solution to solve the transmission security in the unsafe routing path.
While the communication between two sites in the quantum network is carried out,the data frames should be resent once the bit-reversed errors appear.Although this method can guarantee the accuracy of data,the pressure of channel is increased and the communication efficiency is reduced.In order to relieve the pressure of channel,the present quantum bit-reversed error correction circuits were analyzed and improved based on the replication of entanglement and the teleportation to design the seven-particle entanglement of quantum bit-reversed error correction circuits.This improvement can not correct more than three bit-reversed quantum states or phase flip error.The efficiency of protocol and utilization of channels before and after the improvement were compared,and the results show that the latter has higher data transmission utilization and it can supply reference evidence for multi-particle error correction.
quantum computing is the emerging technology in the new era and is very promising, not only quantum computers substantially accelerate what classical computers are able to do nowadays but they are also capable of providing answers that classical computers never could. Using reversible logic in designing quantum circuits has many advantages such as lowering power consumption, reducing heat dissemination, and decreasing quantum cost, ancilla inputs, and garbage outputs that lead to even higher performance in quantum computers. Decoders have many utilizations in digital circuits any function in form of SOP or POS can be implemented using decoders, counters, and ROMs have also used decoder modules in their designs in this article two novel designs for 2:4 and 3:8 decoder have been proposed that has been proved to have less quantum cost, unused outputs, and ancilla inputs when it comes to comparison with recent researches that have been done concerning this field.