Quantum computing : a pathway to quantum logic design /

Quantum computing is an emerging technology with the potential to have a significant impact on science and technology. Recent advances in mathematics, material science and computer engineering are transforming quantum computing from theory into practice. As quantum computing is an entirely different...

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Detalles Bibliográficos
Clasificación:Libro Electrónico
Autor principal: Babu, Hafiz M. H., 1966- (Autor)
Formato: Electrónico eBook
Idioma:Inglés
Publicado: Bristol [England] (Temple Circus, Temple Way, Bristol BS1 6HG, UK) : IOP Publishing, [2020]
Colección:IOP ebooks. 2020 collection.
Temas:
Quantum computing.
Quantum computers.
Quantum logic.
Quantum physics (quantum mechanics & quantum field theory).
SCIENCE / Physics / Quantum Theory.
Acceso en línea:Texto completo
Tabla de Contenidos:
  • 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 bit
  • 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 bit string comparator
  • 3.1. Characteristics of a comparator
  • 3.2. The magnitude comparator
  • 3.3. The design of a quantum comparator
  • 3.4. Summary
  • 4. The quantum 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. Quantum adder circuits
  • 6.1. The carry skip adder
  • 6.2. The quantum comparison circuit
  • 6.3. The quantum
  • 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 the quantum multiplier-accumulator
  • 7.2. The 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. 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 an 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 decoder
  • 10.2. The design of a quantum decoder
  • 10.3. Summary
  • 11. The quantum square root circuit
  • 11.1. Properties of a square root function
  • 11.2. The design of a quantum square root circuit
  • 11.3. Summary
  • 12. Quantum latches and counter circuits
  • 12.1. Properties of latches
  • 12.2. The design of the quantum latches
  • 12.3. Properties of counter circuits
  • 12.4. The design of the quantum counters
  • 12.5. Summary
  • 13. The quantum controlled ternary barrel shifter
  • 13.1. Ternary quantum gates
  • 13.2. 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 random access memory
  • 14.1. The quantum n-to-2n decoder
  • 14.2. The quantum memory unit
  • 14.3. The construction procedure of the quantum RAM
  • 14.4. Summary
  • 15. The quantum arithmetic logic unit
  • 15.1. The design of a quantum ALU
  • 15.2. Summary
  • 16. Applications of quantum computing technology
  • 16.1. Optimization
  • 16.2. Machine learning
  • 16.3. Biomedical simulations
  • 16.4. Financial services
  • 16.5. Computational chemistry
  • 16.6. Logistics and scheduling
  • 16.7. Cyber security
  • 16.8. Circuit, software, and system fault simulation
  • 16.9. Weather forecasting
  • 16.10. Summary
  • part II. Quantum fault tolerance. 17. Quantum fault-tolerant circuits
  • 17.1. The need for quantum fault-tolerant circuits
  • 17.2. The fault-tolerant quantum adder
  • 17.3. The fault-tolerant multiplier
  • 17.4. The quantum fault-tolerant integer divider
  • 17.5. Summary
  • part III. Quantum-dot cellular automata. 18. Quantum-dot cellular automata
  • 18.1. Fundamentals of QCA circuits
  • 18.2. The QCA cell
  • 18.3. Information and data propagation
  • 18.4. Basic QCA elements and gates
  • 18.5. The QCA clock
  • 18.6. Summary
  • 19. QCA adder and subtractor
  • 19.1. The Ex-OR gate
  • 19.2. The QCA half-adder and half-subtractor
  • 19.3. The QCA full-adder and full-subtractor
  • 19.4. Summary
  • 20. The QCA multiplier and divider
  • 20.1. The QCA multiplier
  • 20.2. The QCA divider
  • 20.3. Summary
  • 21. QCA asynchronous and synchronous counters
  • 21.1. The asynchronous counter
  • 21.2. The synchronous counter
  • 21.3. Summary
  • 22. The QCA decoder and encoder
  • 22.1. The QCA decoder
  • 22.2. The QCA encoder
  • 22.3. Summary
  • 23. The QCA multiplexer and demultiplexer
  • 23.1. The QCA
  • 23.2. The QCA
  • 23.3. The QCA
  • 23.4. The QCA
  • 23.5. Multiplexing/demultiplexing using QCA
  • 23.6. Summary
  • 24. The QCA RAM, ROM, and processor
  • 24.1. The RAM cell
  • 24.2. The QCA ROM
  • 24.3. The QCA processor
  • 24.4. Summary.

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