Here are the 10 best quantum cryptography books of all time

Quantum cryptography is a branch of research that uses quantum mechanics principles to encrypt and transmit data, making it impossible for hackers even those with quantum computer capabilities – to access it. The development and execution of different cryptographic tasks using the advanced skills and power of quantum computers are also included in the larger use of quantum cryptography. Quantum computers have the potential to help the creation of new, stronger, and more accurate encryption methods that would be difficult to create using current computing and communication infrastructures.

Here are the top 10 quantum cryptography books that you can read to understand more about the concept.

#1. Quantum Random Number Generation

This book gives an overview of current quantum random number generator (QRNG) solutions, with a focus on their relationship to classical statistical randomness concepts and numerical methods for calculating random numbers. The reader, who should preferably have a background in probability and statistics, computer programming, or cryptography – will be guided through the realm of quantum bits step by step, with clear relationships between QRNGs and their classical equivalents established along the line.

#2. The 2020-2025 World Outlook for Quantum Cryptography

This report examines the global prospects for quantum cryptography in over 190 nations. Figures of the latent market, or potential industry earnings (P.I.E.), for the nation in question (in millions of US dollars), as well as the country's % share of the area and the world, are given for each year presented. These comparison benchmarks enable the reader to swiftly assess a country's position in relation to others. Implicit demand estimates are calculated using econometric models that project basic economic processes within and across nations.

This study does not go into detail on the individual players in the market that serve the latent demand, nor does it go into specific product specifics.

#3. Quantum Cryptography

The United States Air Force should learn more about quantum physics and how it applies to encryption, according to this research. Quantum encryption is unavoidable, according to a study of scientists and academic organizations undertaking research to better understand and utilize quantum cryptography. The attempt to learn and utilize this information must be made with the complete understanding that quantum cryptography is not a split in the road that requires a choice, but rather a technical necessity.

#4. Applied Quantum Cryptography

It is a completely new technology to use the quantum characteristics of single photons to transfer binary keys between two parties for future encryption of secret data. Some years back, quantum cryptography, or more precisely, quantum key distribution was the realm of university-based fundamental research facilities. However, things have altered in the previous several years. Quantum Key Distribution, or QKD, departed the lab and was scooped up by more practical-minded teams that worked hard to build a viable technology out of the astounding discoveries of fundamental research.

#5. Quantum Computing for High School Students

Peter Shor devised a quantum algorithm in 1994 that, once large-scale quantum computers are built, would break much of the cryptography used in digital communications. Quantum computers are devices that employ quantum systems as processors and work on quantum mechanics principles. This book uses only middle school algebra and trigonometry to explore the fascinating topic of quantum computing. The basis of quantum computing theory is built on concepts from quantum physics, mathematics, computer science, and cryptography. One of the aims of this book is to understand Shor's algorithm.

#6. Post-Quantum Cryptography

This book contains the refereed results of the 8th International Workshop on Post-Quantum Cryptography, PQCrypto 2017, which took place in June 2017 in Utrecht, the Netherlands. From a total of 67 submissions, the 23 revised complete papers delivered were carefully evaluated and selected. Code-based cryptography, quantum algorithms, lattice-based cryptography, isogeny-based cryptography, multivariate cryptography, and security models are among the topics covered in the articles.

#7. Introduction to Quantum Information Science

The foundations of quantum theory, quantum entanglement, quantum algorithms, quantum entropies, quantum error correction, quantum coding, and quantum cryptography are all covered in this book. The only prerequisites are a basic understanding of calculus and linear algebra. Undergraduate students will be able to understand the text this way. To understand quantum information, one must first learn the fundamentals of quantum theory. This book presents it from a more operational perspective, which is appropriate for quantum information, but standard quantum theory textbooks do not.

#8. A Novel Mechanism for Enhancing Security in Quantum Cryptography

Today, the primary issue is security. Quantum cryptography is a data transfer technology that employs polarisation. The study described here offers a technique that improves data security while being sent. The BB84 protocol serves as the foundation for this mechanism. From transmitter to recipient and from the recipient to transmitter, this protocol is utilized. The key that you get after using the method is fairly safe.

#9. Physical-Layer Security and Quantum Key Distribution

To address top security checks, this textbook incorporates the most advanced subjects of physical-layer security, covert/stealth communications, cryptography, quantum key distribution (QKD), and cyber security. After presenting several concepts and practices to the reader, the author discusses how they may be used together to solve issues rather than being treated as distinct disciplines.

#10. Nonlinear Laser Dynamics

Nonlinear dynamical observations of semiconductor lasers are discussed in a unique way. The book integrates current quantum dot laser modeling discoveries with mathematical details and analytic knowledge of nonlinear processes in semiconductor lasers, as well as prospective laser applications in encryption and chaos management. This multidisciplinary approach distinguishes it as a unique and valuable source of information for anybody interested in contributing to this field of study.

Conclusion

Quantum computers are rapidly developing, promising to provide strong computer science skills that can handle a wide range of crucial, even life-saving, computing issues that regular computers can't. Regrettably, quantum computers can potentially generate new dangers at unparalleled speed and scale. Complex mathematical calculations, for example, that take regular computers months or years to solve may be solved in seconds by quantum computers using quantum algorithms such as Shor's algorithm. However, the systems capable of cracking classic math-based encryption methods are expected to appear within the next 5 to 10 years.