Optimal Designs of Reversible/Quantum Decoder Circuit Using New Quantum Gates

被引:4
|
作者
Slimani, Ayyoub [1 ]
Benslama, Achour [2 ]
Misra, Neeraj Kumar [3 ]
机构
[1] Univ Medea Algeria, Medea 26000, Algeria
[2] Freres Mentouri Univ, Fundamental Sci Fac, Lab Phys Math & Subatom LPMPS, Phys Dept, Constantine 25000, Algeria
[3] Bharat Inst Engn & Technol, Dept Elect & Commun Engn, Hyderabad 501510, India
关键词
Quantum information; Quantum cost; Quantum delay; Quantum computation; Reversible logic; LOGIC;
D O I
10.1007/s10773-022-05017-w
中图分类号
O4 [物理学];
学科分类号
0702 ;
摘要
The need for a low energy dissipation circuit in place of irreversible circuits at a fast pace. Among the emerging technology is quantum computing technology has attracted many advanced features such as information lossless and low energy dissipation. The need for reduction of quantum cost, quantum delay in the fundamental circuit like decoder is of prominent importance. The low quantum cost and quantum delay means fast computation in the quantum logic circuits. In this article, we have synthesized 2 - to - 4 decoder on three approaches based on S(1)G, S(2)G and S(3)G gates. Then we propose on two approaches a new design of 3 - to - 8 decoder as well as n - to - 2(n) decoder by cascading the proposed 2 - to - 4 decoder with a new gate called S(4)G, The proposed design of a novel 2 - to - 4 decoder (approach 3) can obtain superiority in terms of the number of Quantum cost, Quantum delay and garbage outputs (7,5 and 1respectively) compared with the existed circuits. Also we have designed a novel 3 - to - 8 decoder based on two approaches. Which is obvious on the low quantum delay of 15, quantum cost 23 and garbage output 1. In addition, various lemmas have presented to fix the quantum cost, quantum delay and garbage output for the design of n - to - 2(n) decoder. In the proposed 3 - to - 8 decoder design the rate of quantum cost, quantum delay and garbage outputs is 28%, 53% and 33% respectively less than the existing designs.
引用
收藏
页数:19
相关论文
共 50 条
  • [21] Optimal Quantum Source Coding With Quantum Side Information at the Encoder and Decoder
    Yard, Jon T.
    Devetak, Igor
    IEEE TRANSACTIONS ON INFORMATION THEORY, 2009, 55 (11) : 5339 - 5351
  • [22] A multi-commodity network model for optimal quantum reversible circuit synthesis
    Jung, Jihye
    Choi, In-Chan
    PLOS ONE, 2021, 16 (06):
  • [23] Implementation of quantum gates via optimal control
    Schirmer, Sonia
    JOURNAL OF MODERN OPTICS, 2009, 56 (06) : 831 - 839
  • [24] Reversible Comparator Circuit Using a New Reversible Gate
    Kalita, Gunajit
    Saikia, Navajit
    6TH INTERNATIONAL CONFERENCE ON COMPUTER & COMMUNICATION TECHNOLOGY (ICCCT-2015), 2015, : 419 - 423
  • [25] Design and analysis of 3 x 3 reversible quantum gates
    Bhat, Hilal A.
    Khanday, Farooq A.
    Kaushik, Brajesh K.
    Shah, Khurshed A.
    JOURNAL OF COMPUTATIONAL ELECTRONICS, 2023, 22 (01) : 266 - 275
  • [26] Efficient designs of reversible BCD to EX-3 Converter with low quantum cost in nanoscale
    Noorallahzadeh, Mojtaba
    Mosleh, Mohammad
    INTERNATIONAL JOURNAL OF QUANTUM INFORMATION, 2020, 18 (05)
  • [27] Optimized Design of the Universal Ternary Gates for Quantum/Reversible Computing
    Deibuk, Vitaly
    Turchenko, Iryna
    Shults, Vladyslav
    2015 IEEE 8TH INTERNATIONAL CONFERENCE ON INTELLIGENT DATA ACQUISITION AND ADVANCED COMPUTING SYSTEMS: TECHNOLOGY AND APPLICATIONS (IDAACS), VOLS 1-2, 2015, : 987 - 991
  • [28] Optimisation of quantum circuits using cost effective quantum gates
    Mummadi, Swathi
    Rudra, Bhawana
    INTERNATIONAL JOURNAL OF COMPUTATIONAL SCIENCE AND ENGINEERING, 2025, 28 (02)
  • [29] A Novel Reversible ZS Gate and Its Application for Quantum Adder Circuit
    Zhou, Rigui
    Shi, Yang
    Cao, Jian
    Wang, Hui'an
    2010 INTERNATIONAL CONFERENCE ON THE DEVELOPMENT OF EDUCATIONAL SCIENCE AND COMPUTER TECHNOLOGY, 2010, : 248 - 250
  • [30] A New Nano-Scale and Energy-Optimized Reversible Digital Circuit Based on Quantum Technology
    Seyedi, Saeid
    Navimipour, Nima Jafari
    Otsuki, Akira
    ELECTRONICS, 2022, 11 (23)