A perfect beginners’ guide that converts complex, boring mathematics and formulas into simple and easy to make it clearer. It’s a basic guide to understand general quantum computing concepts on IBM Qiskit documentation.
About This Video
A perfect beginners’ guide that converts complex, boring mathematics and formulas into simple and easy to make it clearer. It’s a basic guide to understand general quantum computing concepts on IBM Qiskit documentation.
About This Video
In Detail
Quantum computers could help the development of new breakthroughs in science, medications, machine learning, material science, and finance, which will help mankind become the best civilization in the whole universe. In fact, quantum computing is so powerful that no one knows how to use its true potential and till now, no quantum algorithm is perfect. The hardware and code are still in development stages, providing great opportunities in the future for quantum computing professionals.
This course starts by introducing you to the basics of current classical computing technology that is based on bits/binary digits (0 and 1) and quantum computing (qubits), and how it is way much more advanced than earlier. Then you will install and get tested on working with the Jupyter notebook and IBM Qiskit in order to execute codes. Lastly, you will learn all the quantum computing concepts and their execution simultaneously in a much leaner, simpler, and more concise format.
By the end of this course, you will learn the basics of quantum computing through implementing it via IBM Qiskit, and you could be able to contribute yourself to the domain that is still in the development phase and be a part of great opportunities in the future for quantum computing professionals.
Who this book is for
The course is best suited for beginners who want to start with practical quantum computing concepts.
Basic computer knowledge and enthusiasm about quantum computing are the only prerequisites to excel and extract the most out of this course.
Chapter 1 : Introduction to the Course
Course Introduction and Table of Contents
Chapter 2 : Introduction to Quantum Mechanics
Introduction to Quantum Mechanics - Part 1
Introduction to Quantum Mechanics - Part 2
Chapter 3 : Classical Bit Versus Quantum Qubit
Classical Bit Versus Quantum Qubit - Part 1
Classical Bit Versus Quantum Qubit - Part 2
Classical Bit Versus Quantum Qubit - Part 3
Classical Bit Versus Quantum Qubit - Part 4
Chapter 4 : Creating, Retaining, and Reading out Qubits
Creating, Retaining, and Reading out Qubits - Part 1
Creating, Retaining, and Reading out Qubits - Part 2
Chapter 5 : Vector and Matrix Quantum States
Vector and Matrix Quantum States
Chapter 6 : Classic Logic Gates Overview
Classic Logic Gates Overview
Chapter 7 : Popular Quantum Frameworks
Popular Quantum Frameworks
Chapter 8 : Installing Anaconda Python Distribution
Installing Anaconda Python Distribution
Chapter 9 : Installing and Testing Qiskit
Installing and Testing Qiskit
Chapter 10 : Pauli X-Gate in Qiskit
Pauli X-Gate in Qiskit - Part 1
G Pauli X-Gate in Qiskit - Part 2
Chapter 11 : Pauli X-Gate Input and Output Customizations
Pauli X-Gate Input and Output Customizations
Chapter 12 : Pauli X-Gate in Real IBM Quantum Computer
Pauli X-Gate in Real IBM Quantum Computer
Chapter 13 : Pauli Matrixes as State Vectors
Pauli Matrixes as State Vectors
Chapter 14 : Pauli Y-Gate Operations
Pauli Y-Gate - Part 1
Pauli Y-Gate - Part 2
Pauli Y-Gate - Part 3 - in Real Quantum Computer
Chapter 15 : Pauli Z-Gate
Pauli Z-Gate
Chapter 16 : Eigenvectors of XYZ Gates
Eigenvectors of XYZ Gates
Chapter 17 : Hadamard Gate Introduction
Hadamard Gate Introduction
Chapter 18 : Hadamard Gate in Qiskit
Hadamard Gate in Qiskit
Chapter 19 : Hadamard Gate Exercises
Hadamard Gate Exercises - Part 1
Hadamard Gate Exercises - Part 2 - X with H and Z
Hadamard Gate Exercises - Part 3 - Superposition Collapse
Chapter 20 : H Gate in Real Quantum Computer
H Gate in Real Quantum Computer
Chapter 21 : R Phi Gate
R Phi Gate
Chapter 22 : S and T Gates
S and T Gates
Chapter 23 : U and I Gates
U and I Gates
Chapter 24 : Multi-Qubit States Introduction
Multi-Qubit States Introduction
Chapter 25 : Representing Multi-Qubit States
Representing Multi-Qubit States
Chapter 26 : Multi-Qubit Circuit Using Single Qubit Gates - Sample Circuit 1
Multi-Qubit Circuit Using Single Qubit Gates - Sample Circuit 1
Chapter 27 : Multi-Qubit Circuit Using Single Qubit Gates - Sample Circuit 2
Multi-Qubit Circuit Using Single Qubit Gates - Sample Circuit 2
Chapter 28 : CNOT Gate with Classical Qubits
CNOT Gate with Classical Qubits
Chapter 29 : CNOT Gate with Control Qubit Superposition
CNOT Gate with Control Qubit Superposition
Chapter 30 : CNOT Gate with Control Qubit Superposition - in Real Quantum Computer
CNOT Gate with Control Qubit Superposition - in Real Quantum Computer
Chapter 31 : CNOT Gate with Both Qubit Superposition
CNOT Gate with Both Qubit Superposition
Chapter 32 : CNOT Gate with Both Qubit Superposition Target X
CNOT Gate with Both Qubit Superposition Target X
Chapter 33 : CNOT Circuit Identities
CNOT Circuit Identities - Part 1
CNOT Circuit Identities - Part 2
Chapter 34 : CZ Circuit Identity
CZ Circuit Identity - Part 1
CZ Circuit Identity - Part 2
Chapter 35 : CY Circuit Identity
CY Circuit Identity
Chapter 36 : SWAP Circuit Identity
SWAP Circuit Identity
Chapter 37 : Toffoli Gate
Toffoli Gate
Chapter 38 : Toffoli Circuit Identity
Toffoli Circuit Identity
Chapter 39 : DJ Problem Overview
DJ Problem Overview
Chapter 40 : DJ Algorithm Design
DJ Algorithm Design
Chapter 41 : DJ Algorithm Implementation
DJ Algorithm Implementation - Part 1
DJ Algorithm Implementation - Part 2
DJ Algorithm Implementation - Part 3
Chapter 42 : Quantum Cryptography: Quantum Key Distribution
Quantum Key Distribution - RSA Concepts
Quantum Key Distribution - Concept
Chapter 43 : Quantum Teleportation Theory
Quantum Teleportation Theory
Chapter 44 : Further Learning and Resources
Further Learning and Resources