Qiskit Pocket Guide

Spis treści ebooka

• Preface
  • How This Book Is Structured
  • Conventions Used in This Book
  • Using Code Examples
  • OReilly Online Learning
  • How to Contact Us
  • Acknowledgments
• I. Qiskit Fundamentals
• 1. Quantum Circuits and Operations
  • Constructing Quantum Circuits
    • Using the QuantumCircuit Class
      • Commonly used gates
      • Drawing a quantum circuit
        • Using the draw() method
      • Creating a barrier
        • Using the barrier() method
      • Measuring a quantum circuit
        • Using the measure() method
        • Using the measure_all() method
      • Obtaining information about a quantum circuit
      • Manipulating a quantum circuit
        • Using the append() method
        • Using the bind_parameters() method
        • Using the compose() method
        • Using the copy() method
        • Using the decompose() method
        • Using the from_qasm_file() method
        • Using the from_qasm_str() method
        • Using the initialize() method
        • Using the reset() method
        • Using the qasm() method
        • Using the to_gate() method
        • Using the to_instruction() method
      • Saving state when running a circuit on AerSimulator
    • Using the QuantumRegister Class
    • Using QuantumRegister Attributes
    • Using the ClassicalRegister Class
    • Using ClassicalRegister Attributes
  • Instructions and Gates
    • The Instruction Class
    • The Gate Class
    • The ControlledGate Class
      • Using the num_ctrl_qubits attribute
      • Using the ctrl_state() method
      • Defining a custom controlled gate
  • Parameterized Quantum Circuits
    • Creating a Parameter Instance
    • Using the ParameterVector Class
• 2. Running Quantum Circuits
  • Using the BasicAer Simulators
    • Using the BasicAer qasm_simulator Backend
    • Using the BasicAer statevector_simulator Backend
    • Using the BasicAer unitary_simulator Backend
  • Using the Aer Simulators
    • Using the Aer Legacy Simulators
    • Using the AerSimulator Backend
      • Using the AerSimulator to hold measurement results
      • Using the AerSimulator to calculate and hold a statevector
      • Using the AerSimulator to calculate and hold a unitary
      • Using the AerSimulator for additional simulation methods
        • Using set_options() to update the simulation method
        • Getting a backend with a preconfigured simulation method
        • Passing a simulation method into run()
      • Supplying a noise model to an AerSimulator backend
      • Creating an AerSimulator backend from a real device
  • Monitoring Job Status and Obtaining Results
• 3. Visualizing Quantum Measurements and States
  • Visualizing Measurement Counts
    • Using the plot_histogram Function
  • Visualizing Quantum States
    • Using the plot_state_qsphere Function
    • Using the plot_state_city Function
    • Using the plot_bloch_multivector Function
    • Using the plot_state_hinton Function
    • Using the plot_state_paulivec Function
• 4. Using the Transpiler
  • Quickstart with Transpile
  • Transpiler Passes
    • The PassManager
    • Compiling/Translating Passes
    • Routing Passes
    • Optimization Passes
    • Initial Layout Selection Passes
    • Preset PassManagers
• II. Quantum Information and Algorithms
• 5. Quantum Information
  • Using Quantum Information States
    • Using the Statevector Class
      • Example of using Statevector methods
    • Using the DensityMatrix Class
      • Example of using DensityMatrix methods
  • Using Quantum Information Operators
    • Using the Operator Class
    • Using the Pauli Class
  • Using Quantum Information Channels
  • Using Quantum Information Measures
    • Using the state_fidelity Function
• 6. Operator Flow
  • Creating Operator Flow Expressions
  • Using the Operator Flow State Function Classes
    • Using the StateFn Class
  • Using the Operator Flow Primitive Operators Classes
    • Using the PrimitiveOp Class
• 7. Quantum Algorithms
  • Background on Quantum Algorithms
  • Using the Algorithms Module
    • Quickstart
    • The Algorithms Interface
  • Traditional Quantum Algorithms
    • Grovers Algorithm
    • Phase Estimation Algorithms
    • Amplitude Estimation Algorithms
  • Eigensolvers
    • NumPy Eigensolvers
    • The Variational Quantum Eigensolver
    • Parameterized Circuits
    • Optimizers
• III. Additional Essential Functionality
• 8. Qiskit Circuit Library Standard Operations
  • Standard Instructions
    • Barrier
    • Measure
    • Reset
  • Standard Single-Qubit Gates
    • HGate
    • IGate
    • PhaseGate
    • RXGate
    • RYGate
    • RZGate
    • SGate
    • SdgGate
    • SXGate
    • SXdgGate
    • TGate
    • TdgGate
    • UGate
    • XGate
    • YGate
    • ZGate
  • Standard Multiqubit Gates
    • C3XGate
    • C3SXGate
    • C4XGate
    • CCXGate
    • CHGate
    • CPhaseGate
    • CRXGate
    • CRYGate
    • CRZGate
    • CSwapGate
    • CSXGate
    • CUGate
    • CXGate
    • CYGate
    • CZGate
    • DCXGate
    • iSwapGate
    • MCPhaseGate
    • MCXGate
    • SwapGate
• 9. Working with Providers and Backends
  • Graphical Tools
  • Text-Based Tools
  • Getting System Info Programmatically
  • Interacting with Quantum Systems on the Cloud
    • Convenience Tools
    • Runtime Services
• 10. OpenQASM
  • Building Quantum Circuits in QASM
    • Comments
    • Version Strings
    • Basic Syntax
    • Implicit Looping
    • Quantum Gates and Instructions
      • Gates
      • Instructions
  • Building Higher-Level Gates
    • Modifying Existing Gates
    • Defining New Gates
  • Classical Types and Instructions
    • Constants
    • Shorthands
    • Arrays of Classical Types
    • Built-in Classical Instructions
  • Building Quantum Programs
    • Subroutines
    • Inputs and Outputs
• Index

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