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Quantum computing : a pathway to quantum logic design / Hafiz Md. Hasan Babu.

By: Contributor(s): Material type: TextSeries: IOP (Series). Release 23. | IOP ebooks. 2023 collection.Publisher: Bristol [England] (Temple Circus, Temple Way, Bristol BS1 6HG, UK) : IOP Publishing, [2023]Edition: Second editionDescription: 1 online resource (various pagings) : illustrations (some color)Content type:
  • text
Media type:
  • electronic
Carrier type:
  • online resource
ISBN:
  • 9780750356831
  • 9780750356824
Other title:
  • Pathway to quantum logic design
Subject(s):
Additional physical formats: Print version:: No titleLOC classification:
  • QA76.889 .B337 2023eb
Online resources:
Available additional physical forms:
  • Also available in print.
Contents:
part II. Quantum fault tolerance. 19. Quantum fault-tolerant circuits -- 19.1. The need for quantum fault-tolerant circuits -- 19.2. The fault-tolerant quantum adder -- 19.3. The fault-tolerant multiplier -- 19.4. The quantum fault-tolerant integer divider -- 19.5. Summary
part III. Quantum-dot cellular automata. 20. Quantum-dot cellular automata -- 20.1. Fundamentals of QCA circuits -- 20.2. The QCA cell -- 20.3. Information and data propagation -- 20.4. Basic QCA elements and gates -- 20.5. The QCA clock -- 20.6. Summary
21. The QCA adder and subtractor -- 21.1. The Ex-OR gate -- 21.2. The QCA half-adder and -subtractor -- 21.3. The QCA full-adder and full-subtractor -- 21.4. Summary
22. The QCA multiplier and divider -- 22.1. The QCA multiplier -- 22.2. The QCA divider -- 22.3. Summary
23. QCA asynchronous and synchronous counters -- 23.1. The asynchronous counter -- 23.2. The synchronous counter -- 23.3. Summary
24. The QCA decoder and encoder -- 24.1. The QCA decoder -- 24.2. The QCA encoder -- 24.3. Summary
25. The QCA multiplexer and demultiplexer -- 25.1. The QCA 2-to-1 multiplexer -- 25.2. The QCA 4-to-1 multiplexer -- 25.3. The QCA 1-to-2 demultiplexer -- 25.4. The QCA 1-to-4 demultiplexer -- 25.5. Multiplexing/demultiplexing using QCA -- 25.6. Summary
26. QCA flip-flops -- 26.1. QCA D flip-flops -- 26.2. QCA J-K flip-flops -- 26.3. QCA SR flip-flops -- 26.4. QCA T flip-flops -- 26.5. Applications -- 26.6. Summary
27. QCA programmable logic devices -- 27.1. The QCA programmable array logic -- 27.2. The QCA programmable logic array -- 27.3. The QCA field-programmable gate array -- 27.4. The importance and applications of QCA programmable logic devices -- 27.5. Summary
28. QCA RAM, ROM, and cache memory -- 28.1. The RAM cell -- 28.2. The QCA ROM -- 28.3. The QCA cache memory -- 28.4. Summary
29. The QCA processor circuit -- 29.1. Introduction -- 29.2. Basic definitions -- 29.3. The block diagram of a QCA processor -- 29.4. The basic components of a QCA processor -- 29.5. Summary
30. Applications of QCA technology -- 30.1. High performance -- 30.2. Small size -- 30.3. Low power consumption -- 30.4. Encryption and authentication -- 30.5. Higher data speed -- 30.6. Image processing -- 30.7. Summary
part IV. QCA fault tolerance. 31. QCA fault-tolerant circuits -- 31.1. The necessity of QCA fault-tolerant circuits -- 31.2. The fault-tolerant QCA majority gate -- 31.3. The fault-tolerant QCA 1-to-2 demultiplexer -- 31.4. The fault-tolerant QCA full-adder -- 31.5. The fault-tolerant QCA SRAM cell -- 31.6. The fault-tolerant QCA subtractor -- 31.7. The fault-tolerant QCA multiplier -- 31.8. Summary.
part I. Quantum logic. 1. Quantum logic -- 1.1. Overview -- 1.2. Motivations towards quantum computing -- 1.3. The relationship between reversible and quantum logic -- 1.4. Quantum computers -- 1.5. The working principles of quantum computers -- 1.6. The evolution of quantum computers -- 1.7. Why pursue quantum computing? -- 1.8. Summary
2. Basic definitions of quantum logic -- 2.1. The quantum qubit -- 2.2. The quantum gate -- 2.3. Garbage outputs -- 2.4. Constant inputs -- 2.5. Area -- 2.6. Power -- 2.7. Delay -- 2.8. Depth -- 2.9. Quantum cost -- 2.10. Quantum gate calculation complexity -- 2.11. Summary
3. The quantum qubit string comparator -- 3.1. Characteristics of a quantum comparator -- 3.2. The quantum magnitude comparator -- 3.3. The design of a quantum comparator -- 3.4. Summary
4. The quantum full-adder and subtractor -- 4.1. The quantum adder -- 4.2. The quantum subtractor -- 4.3. Summary
5. The quantum multiplexer and demultiplexer -- 5.1. The quantum multiplexer -- 5.2. The quantum demultiplexer -- 5.3. Summary
6. The quantum adder circuits -- 6.1. The quantum carry skip adder -- 6.2. The quantum comparison circuit -- 6.3. The quantum2-to-1 multiplier circuit -- 6.4. The design of a quantum carry skip adder -- 6.5. The quantum BCD adder -- 6.6. Summary
7. The quantum multiplier-accumulator -- 7.1. The importance of a quantum multiplier-accumulator -- 7.2. The quantum multiplication technique -- 7.3. Reduction of the garbage outputs and ancillary inputs of quantum circuits -- 7.4. The design of a quantum multiplier circuit -- 7.5. Accumulator -- 7.6. Summary
8. The quantum divider -- 8.1. Division algorithms -- 8.2. The importance of the quantum divider -- 8.3. The tree-based quantum division technique -- 8.4. The design of a quantum divider circuit -- 8.5. Summary
9. The quantum BCD priority encoder -- 9.1. The properties of a quantum encoder -- 9.2. The design of a quantum BCD priority encoder circuit -- 9.3. Summary
10. The quantum decoder -- 10.1. The characteristics of a quantum decoder -- 10.2. The design of a quantum decoder -- 10.3. Summary
11. The quantum square root circuit -- 11.1. The properties of a quantum square root function -- 11.2. The design of a quantum square root circuit -- 11.3. Summary
12. Quantum latches and counter circuits -- 12.1. The properties of quantum latches -- 12.2. The design of quantum latches -- 12.3. The properties of quantum counter circuits -- 12.4. The design of quantum counters -- 12.5. Summary
13. The quantum controlled ternary barrel shifter -- 13.1. Ternary quantum gates -- 13.2. The properties of ternary quantum circuits -- 13.3. The quantum barrel shifter -- 13.4. The design of a quantum ternary barrel shifter -- 13.5. Summary
14. Quantum RAM, quantum ROM, and quantum cache memory -- 14.1. The quantum n-to-2n decoder -- 14.2. The quantum memory unit -- 14.3. The construction procedure of QRAM -- 14.4. Quantum ROM -- 14.5. Quantum cache memory -- 14.6. Summary
15. The quantum arithmetic logic unit -- 15.1. The design of a quantum ALU -- 15.2. Summary
16. Quantum programmable logic devices -- 16.1. The quantum programmable array logic -- 16.2. The quantum programmable logic array -- 16.3. The quantum complex programmable logic device -- 16.4. The quantum field-programmable gate array -- 16.5. Summary
17. The quantum processor circuit -- 17.1. Introduction -- 17.2. Basic definitions -- 17.3. The block diagram of a quantum processor -- 17.4. The basic components of a quantum processor -- 17.5. Applications -- 17.6. Summary
18. Applications of quantum computing technology -- 18.1. Optimization -- 18.2. Machine learning -- 18.3. Biomedical simulations -- 18.4. Financial services -- 18.5. Computational chemistry -- 18.6. Logistics and scheduling -- 18.7. Cyber security -- 18.8. Circuit, software, and system fault simulation -- 18.9. Weather forecasting -- 18.10. Summary
Abstract: Quantum computing is an emerging technology with the potential to have a significant impact on science and technology. Organised into four parts, this comprehensive second edition covers topics such as the basic concepts of quantum computing alongside quantum implementation of different circuits; the fault tolerant concepts of quantum computing; the concept of QCA alongside the design processes of different QCA circuits; and an overview of QCA fault-tolerant circuits and their design procedures. In addition to updates to first edition chapters to reflect developments in recent years, this new edition sees the inclusion of problems to every chapter and eight new chapters. This book will be a great help for quantum computing researchers, faculty members and students who can develop a working understanding of circuit-based quantum computing.
Item type: List(s) this item appears in: Titluri cărți electronice Institute of Physics 2025 (221 titluri)
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"Version: 202306"--Title page verso.

Includes bibliographical references.

part II. Quantum fault tolerance. 19. Quantum fault-tolerant circuits -- 19.1. The need for quantum fault-tolerant circuits -- 19.2. The fault-tolerant quantum adder -- 19.3. The fault-tolerant multiplier -- 19.4. The quantum fault-tolerant integer divider -- 19.5. Summary

part III. Quantum-dot cellular automata. 20. Quantum-dot cellular automata -- 20.1. Fundamentals of QCA circuits -- 20.2. The QCA cell -- 20.3. Information and data propagation -- 20.4. Basic QCA elements and gates -- 20.5. The QCA clock -- 20.6. Summary

21. The QCA adder and subtractor -- 21.1. The Ex-OR gate -- 21.2. The QCA half-adder and -subtractor -- 21.3. The QCA full-adder and full-subtractor -- 21.4. Summary

22. The QCA multiplier and divider -- 22.1. The QCA multiplier -- 22.2. The QCA divider -- 22.3. Summary

23. QCA asynchronous and synchronous counters -- 23.1. The asynchronous counter -- 23.2. The synchronous counter -- 23.3. Summary

24. The QCA decoder and encoder -- 24.1. The QCA decoder -- 24.2. The QCA encoder -- 24.3. Summary

25. The QCA multiplexer and demultiplexer -- 25.1. The QCA 2-to-1 multiplexer -- 25.2. The QCA 4-to-1 multiplexer -- 25.3. The QCA 1-to-2 demultiplexer -- 25.4. The QCA 1-to-4 demultiplexer -- 25.5. Multiplexing/demultiplexing using QCA -- 25.6. Summary

26. QCA flip-flops -- 26.1. QCA D flip-flops -- 26.2. QCA J-K flip-flops -- 26.3. QCA SR flip-flops -- 26.4. QCA T flip-flops -- 26.5. Applications -- 26.6. Summary

27. QCA programmable logic devices -- 27.1. The QCA programmable array logic -- 27.2. The QCA programmable logic array -- 27.3. The QCA field-programmable gate array -- 27.4. The importance and applications of QCA programmable logic devices -- 27.5. Summary

28. QCA RAM, ROM, and cache memory -- 28.1. The RAM cell -- 28.2. The QCA ROM -- 28.3. The QCA cache memory -- 28.4. Summary

29. The QCA processor circuit -- 29.1. Introduction -- 29.2. Basic definitions -- 29.3. The block diagram of a QCA processor -- 29.4. The basic components of a QCA processor -- 29.5. Summary

30. Applications of QCA technology -- 30.1. High performance -- 30.2. Small size -- 30.3. Low power consumption -- 30.4. Encryption and authentication -- 30.5. Higher data speed -- 30.6. Image processing -- 30.7. Summary

part IV. QCA fault tolerance. 31. QCA fault-tolerant circuits -- 31.1. The necessity of QCA fault-tolerant circuits -- 31.2. The fault-tolerant QCA majority gate -- 31.3. The fault-tolerant QCA 1-to-2 demultiplexer -- 31.4. The fault-tolerant QCA full-adder -- 31.5. The fault-tolerant QCA SRAM cell -- 31.6. The fault-tolerant QCA subtractor -- 31.7. The fault-tolerant QCA multiplier -- 31.8. Summary.

part I. Quantum logic. 1. Quantum logic -- 1.1. Overview -- 1.2. Motivations towards quantum computing -- 1.3. The relationship between reversible and quantum logic -- 1.4. Quantum computers -- 1.5. The working principles of quantum computers -- 1.6. The evolution of quantum computers -- 1.7. Why pursue quantum computing? -- 1.8. Summary

2. Basic definitions of quantum logic -- 2.1. The quantum qubit -- 2.2. The quantum gate -- 2.3. Garbage outputs -- 2.4. Constant inputs -- 2.5. Area -- 2.6. Power -- 2.7. Delay -- 2.8. Depth -- 2.9. Quantum cost -- 2.10. Quantum gate calculation complexity -- 2.11. Summary

3. The quantum qubit string comparator -- 3.1. Characteristics of a quantum comparator -- 3.2. The quantum magnitude comparator -- 3.3. The design of a quantum comparator -- 3.4. Summary

4. The quantum full-adder and subtractor -- 4.1. The quantum adder -- 4.2. The quantum subtractor -- 4.3. Summary

5. The quantum multiplexer and demultiplexer -- 5.1. The quantum multiplexer -- 5.2. The quantum demultiplexer -- 5.3. Summary

6. The quantum adder circuits -- 6.1. The quantum carry skip adder -- 6.2. The quantum comparison circuit -- 6.3. The quantum2-to-1 multiplier circuit -- 6.4. The design of a quantum carry skip adder -- 6.5. The quantum BCD adder -- 6.6. Summary

7. The quantum multiplier-accumulator -- 7.1. The importance of a quantum multiplier-accumulator -- 7.2. The quantum multiplication technique -- 7.3. Reduction of the garbage outputs and ancillary inputs of quantum circuits -- 7.4. The design of a quantum multiplier circuit -- 7.5. Accumulator -- 7.6. Summary

8. The quantum divider -- 8.1. Division algorithms -- 8.2. The importance of the quantum divider -- 8.3. The tree-based quantum division technique -- 8.4. The design of a quantum divider circuit -- 8.5. Summary

9. The quantum BCD priority encoder -- 9.1. The properties of a quantum encoder -- 9.2. The design of a quantum BCD priority encoder circuit -- 9.3. Summary

10. The quantum decoder -- 10.1. The characteristics of a quantum decoder -- 10.2. The design of a quantum decoder -- 10.3. Summary

11. The quantum square root circuit -- 11.1. The properties of a quantum square root function -- 11.2. The design of a quantum square root circuit -- 11.3. Summary

12. Quantum latches and counter circuits -- 12.1. The properties of quantum latches -- 12.2. The design of quantum latches -- 12.3. The properties of quantum counter circuits -- 12.4. The design of quantum counters -- 12.5. Summary

13. The quantum controlled ternary barrel shifter -- 13.1. Ternary quantum gates -- 13.2. The properties of ternary quantum circuits -- 13.3. The quantum barrel shifter -- 13.4. The design of a quantum ternary barrel shifter -- 13.5. Summary

14. Quantum RAM, quantum ROM, and quantum cache memory -- 14.1. The quantum n-to-2n decoder -- 14.2. The quantum memory unit -- 14.3. The construction procedure of QRAM -- 14.4. Quantum ROM -- 14.5. Quantum cache memory -- 14.6. Summary

15. The quantum arithmetic logic unit -- 15.1. The design of a quantum ALU -- 15.2. Summary

16. Quantum programmable logic devices -- 16.1. The quantum programmable array logic -- 16.2. The quantum programmable logic array -- 16.3. The quantum complex programmable logic device -- 16.4. The quantum field-programmable gate array -- 16.5. Summary

17. The quantum processor circuit -- 17.1. Introduction -- 17.2. Basic definitions -- 17.3. The block diagram of a quantum processor -- 17.4. The basic components of a quantum processor -- 17.5. Applications -- 17.6. Summary

18. Applications of quantum computing technology -- 18.1. Optimization -- 18.2. Machine learning -- 18.3. Biomedical simulations -- 18.4. Financial services -- 18.5. Computational chemistry -- 18.6. Logistics and scheduling -- 18.7. Cyber security -- 18.8. Circuit, software, and system fault simulation -- 18.9. Weather forecasting -- 18.10. Summary

Quantum computing is an emerging technology with the potential to have a significant impact on science and technology. Organised into four parts, this comprehensive second edition covers topics such as the basic concepts of quantum computing alongside quantum implementation of different circuits; the fault tolerant concepts of quantum computing; the concept of QCA alongside the design processes of different QCA circuits; and an overview of QCA fault-tolerant circuits and their design procedures. In addition to updates to first edition chapters to reflect developments in recent years, this new edition sees the inclusion of problems to every chapter and eight new chapters. This book will be a great help for quantum computing researchers, faculty members and students who can develop a working understanding of circuit-based quantum computing.

Professional and scholarly.

Also available in print.

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Dr. Hafiz Md. Hasan Babu is a Professor in the Department of Computer Science & Engineering and a Dean in the Faculty of Engineering and Technology at the University of Dhaka, Bangladesh. In recognition of his valuable contributions in the field of computer science and engineering, he received the Bangladesh Academy of Sciences Dr. M. O. Ghani Memorial Gold Medal Award in 2015 and University Grants Commission of Bangladesh Gold Medal Award in 2017, which are the most prestigious research awards in Bangladesh. He has written more than one hundred research articles published in reputed journals and is a regular reviewer of reputed international journals and conferences.

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