This article explains mental hashing algorithms, provides an example algorithm, and discusses considerations for simplicity, security, benefits and limitations.
Explains what cryptographic hash functions are, their purpose, characteristics, how they work through the hashing process, and their role in data security.
Explains what the SHA-256 fingerprint is, how it is generated using the SHA-256 hash algorithm, and its role in cryptography and data security applications.
Explains the SHA-3 hash algorithm - how it works via sponge construction, its security benefits over SHA-2, and applications in data hashing and cryptography.
Compares popular hashing algorithms like MD5, SHA-1 and SHA-256 on criteria like speed, security and collision resistance to determine the best algorithm.
This article explains what SHA-256 is, how brute force attacks work, and whether SHA-256 can be broken with brute force given the current state of technology.
A look at brute force, rainbow tables, and other techniques for decrypting SHA-1 hashes, along with the challenges and ethical considerations involved.
This article looks at the strength of the SHA-256 cryptographic hash function and estimates how long it would take to crack given current and future technology.
Hashing and encryption are related but distinct data security concepts. This article examines their key differences and whether hashing is a form of encryption.
Learn about SHA-256, a secure hash algorithm used in cryptography, Bitcoin, and password storage. Understand its properties, advantages, and limitations.
This article compares SHA512 and SHA256 hash algorithms, analyzing hash length, real-world collision resistance and recommendations for usage in cryptography.
Compares SHA-1 and SHA-3 hash functions, analyzing differences in algorithm design, security vulnerabilities, and recommendations for transitioning to SHA-3.
Compares SHA-1 and SHA-2 hash algorithms, analyzing differences in security vulnerabilities and recommendations for transitioning to more secure SHA-2.
Compares the hash functions SHA-256, MD5 and SHA-1, analyzing their digest size, design, collision resistance, security vulnerabilities and ideal use cases.
AES-256 and SHA-256 are distinct cryptographic standards used for encryption and hashing respectively. This article clarifies they are not the same thing.