Chapter 1: Quantum Fields - The Building Blocks of Reality
Enter Max Planck, the Father of Quantum Mechanics
Planck Hits the Jackpot, Einstein collects a Novel Prize
Quantum Mechanics comes in many flavors. Which is your favorite?
Many Worlds Interpretation
Supplementary Interpretations
From Quantum Mechanics to Quantum Fields: Evolution or Revolution
Chapter 1 Exercises
Chapter 2: Richard Feynman, Demigod of Physics, Father of the Quantum Computer
Mysteries of QFT: The Plague on Infinities
Feynman Diagrams: Formulas in Disguise
Antimatter as Time Reverse Matter and the Mirror Universe
Chapter 2 Exercises
Chapter 3: The Qubit Revolution is at Hand
Your Friendly Neighborhood Quantum Computer
Linear Optics vs Super Conducting Loops
The Many Flavors of Qubit
Chapter 3 Exercises
Chapter 4: Enter the IBM Quantum: A One of a Kind Platform for Quantum Computing in the Cloud
Getting your feet wet with IBM Quantum
Opus 1: Variations on Bell and GHZ States
Remote Access via the REST API
Chapter 4 Exercises
Chapter 5: Mathematical Foundation: Time to Dust up that Linear Algebra
Qubit 101: Vector, Matrices and Complex Numbers
Euler’s Identity: A Wonderful Masterpiece
Algebraic Representation of the Qubit
Changing the State of a Qubit with Quantum Gates
Universal Quantum Computation delivers shortcuts over Classical Computation
Chapter 5 Exercises
Chapter 6: QISKit, Awesome SDK for Quantum Programming in Python
Installing the QISKit
Your First Quantum Program
Quantum Assembly: The Power behind the Scenes
Chapter 6 Exercises
Chapter 7: Start Your Engines: From Quantum Random Numbers to Teleportation, pit stop at Super Dense Coding
Quantum Random Number Generation
Super Dense Coding
Quantum Teleportation
Chapter 8: Game Theory: With Quantum Mechanics Odds Are Always in Your Favor
Counterfeit Coin Puzzle
Mermin-Peres Magic Square
Answers for the Mermin-Peres Magic Square Exercise
Chapter 9: Faster Search Plus Threatening the Foundation of Asymmetric Cryptography with Grover and Shor
Quantum Unstructured Search
Integer Factorization with Shor’s Algorithm
Chapter 10: Advanced Algorithms for Quantum Chemistry
What in an Eigenvalue and why should I care
Variational Quantum Eigensolver
Molecule Ground State Experiment
Protein Folding Experiment
Vladimir Silva was born in Quito, Ecuador. He received a System's Analyst degree from the Polytechnic Institute of the Army in 1994. In the same year, he came to the United States as an exchange student pursuing an M.S. degree in Computer Science at Middle Tennessee State University. After graduation, he joined the IBM WebAhead technology think tank. His interests include Grid Computing, Neural Nets, and Artificial Intelligence. He also holds numerous IT certifications including OCP, MCSD, and MCP. He has written many technical articles for IBM developerWorks and books in the fields of grid computing, and security. His previous books include: Grid Computing for Developers (Charles River Media), Practical Eclipse Rich Client Platform (Apress), Pro Android Games (Apress), and Advanced Android 4 Games (Apress).
Learn to write algorithms and program in the new field of quantum computing. This second edition is updated to equip you with the latest knowledge and tools needed to be a complex problem-solver in this ever-evolving landscape. The book has expanded its coverage of current and future advancements and investments by IT companies in this emerging technology. Most chapters are thoroughly revised to incorporate the latest updates to IBM Quantum's systems and offerings, such as improved algorithms, integrating hardware advancements, software enhancements, bug fixes, and more.
You’ll examine quantum computing in the cloud and run experiments there on a real quantum device. Along the way you’ll cover game theory with the Magic Square, an example of quantum pseudo-telepathy. You’ll also learn to write code using QISKit, Python SDK, and other APIs such as QASM and execute it against simulators (local or remote) or a real quantum computer. Then peek inside the inner workings of the Bell states for entanglement, Grover’s algorithm for linear search, Shor’s algorithm for integer factorization, and other algorithms in the fields of optimization, and more. Finally, you’ll learn the current quantum algorithms for entanglement, random number generation, linear search, integer factorization, and others.
By the end of this book, you’ll understand how quantum computing provides massive parallelism and significant computational speedups over classical computers
What You'll Learn
Write algorithms that provide superior performance over their classical counterparts
Create a quantum number generator: the quintessential coin flip with a quantum twist
Examine the quantum algorithms in use today for random number generation, linear search, and more
Discover quantum teleportation
Handle the counterfeit coin problem, a classic puzzle
Put your knowledge to the test with more than 150 practice exercises