7 Best-Selling Hashing Algorithms Books Millions Trust

Drawing from deep expertise in cryptography, Josef Pieprzyk and Babak Sadeghiyan explore the intricate process of creating secure hashing algorithms essential for digital signatures and authentication. You’ll gain insight into how hashing compresses large data sets into fixed-size digests, with detailed examination of both theoretical foundations and practical design challenges. Chapters cover core concepts like collision resistance and efficiency, making it suited to those developing or analyzing cryptographic protocols. If you’re involved in cryptography or database security, this book offers a focused study of hashing’s critical role, though it assumes familiarity with advanced concepts rather than casual introduction.

After analyzing decades of cryptographic advancements, Alan G. Konheim developed this book to map the evolution and applications of hashing in computer science. Drawing from his work at IBM on the Data Encryption Standard, he delves into the mathematical foundations and security implications of hashing, reinforced through detailed course materials and sample problems. You gain insight into the historical context as well as technical depth, making it a valuable study for those involved in cryptography, mathematics, or security research. If you're seeking a blend of theory and practical examination grounded in real-world standards, this book offers a rigorous overview, though it leans towards advanced learners rather than casual enthusiasts.

This tailored book explores the intricate world of hashing algorithm design and security, offering a focused examination that matches your background and goals. It reveals how hashing functions operate, their role in data integrity, and the principles behind collision resistance and cryptographic strength. Through a personalized lens, it covers algorithm construction details and security considerations that align with your specific interests. By combining widely validated knowledge with your unique learning objectives, this book creates a customized learning experience that deepens understanding of hashing mechanisms and their applications in modern cryptography.

What started as a technical challenge in mail classification became a focused exploration by Okunade Oluwasogo Adekunle into combating spam through innovative algorithm design. The book details how traditional content-based spam filters struggle when suspicious terms are misspelled or altered, and presents a word stemming and hashing method that extracts the base form of such terms to improve detection. You’ll gain insight into how this approach enhances filter accuracy by addressing lexical variations in spam content, with clear explanations of the rule-based stemming algorithm introduced. If you're involved in email security or developing filtering tools, this work offers a targeted perspective on handling evolving spam techniques effectively.

What makes this book unique in the hashing algorithms space is its detailed exploration of collision attacks on MD5, revealing the practical side of cryptanalysis through source codes in Visual C++. Tao Xie and Fanbao Liu dissect the weaknesses in hash functions with a methodical approach, presenting signed differential representations and evolutionary computation techniques that illuminate vulnerabilities in widely used algorithms like SHA-1 and SHA-2. You’ll gain insight into the fastest known collision search algorithms and understand how weak input differences are exploited step by step. This is a technical guide best suited for those involved in information security research or advanced cryptography studies, not casual readers or beginners.

When Jean-Philippe Aumasson and his co-authors detail the BLAKE hash function, they bring an engineer's precision and a practitioner's focus to cryptographic hashing. You learn not only how BLAKE and its successor BLAKE2 were designed to meet and exceed rigorous NIST competition standards but also how to implement these algorithms efficiently across various platforms—from portable C code to SIMD-optimized routines. The book walks you through technical aspects like collision resistance, hardware design considerations, and practical applications such as HMAC and PBKDF2, making it a solid choice if you're involved in software security or cryptography engineering. This is a resource that benefits developers, security professionals, and applied cryptography researchers who want hands-on insight into a modern hash function's design and deployment.

This personalized book explores the step-by-step process of implementing and optimizing hash functions tailored to your experience and goals. It covers core concepts of cryptographic hashing, the design and evaluation of hash algorithms, and practical techniques to enhance security and performance. By focusing on your specific interests, this tailored guide bridges foundational knowledge with custom insights that reflect what millions of readers have found valuable in the field. You will examine how hash functions protect data integrity, prevent collisions, and support cryptographic protocols. The book reveals practical applications and optimization methods that match your background, making complex topics accessible and engaging for your learning journey.

Drawing from his academic background in bioinformatics and computer science, Thomas Mailund offers a focused exploration of hash table implementations in C. You’ll learn not just the basics of hash tables but also how to handle collisions, resize tables dynamically, and manage key-value storage with practical examples and source code on GitHub. The book walks through iterative improvements on hash table design, making it ideal if you want to deepen your understanding of efficient data structures. It’s tailored for programmers who already have some experience with C and are ready to sharpen their skills in this specific area.

ISO/IEC JTC 1/SC 27/WG 2, a global authority on standards, developed this work to formalize hash-functions using n-bit block ciphers. You’ll find detailed specifications of four distinct hash-functions, each producing hash-codes of varying lengths relative to the block size n. This book breaks down the technical framework underpinning these algorithms, including how they fit within the broader ISO/IEC 10118 series. If you’re involved in cryptographic implementations or security protocol design, this text offers precise standards essential for ensuring compatibility and security compliance.