Overview:Adler-32 is a checksum algorithm used in the zlib library. It is known for its speed and simplicity, although it is less robust than some other algorithms.

Usage:Primarily used for error detection in data transmission.

Overview:CRC32 (Cyclic Redundancy Check) is a robust algorithm for detecting accidental changes in digital data.

Usage:Common in Ethernet, storage devices, and file integrity verification.

Overview:CRC32B is a variant of CRC32 that uses a different polynomial, tailoring its performance for certain applications.

Usage:Similar to CRC32, it is used in data integrity checks.

Overview:CRC32C employs an alternate polynomial offering improved error detection for modern hardware and software.

Usage:Widely implemented in contemporary systems for enhanced reliability.

Overview:FNV-1 32-bit is part of the Fowler–Noll–Vo family of hash functions. It is simple, fast, and provides a good distribution of hash values.

Usage:Often used in hash tables and non-cryptographic applications.

Overview:FNV-1 64-bit extends the FNV algorithm to 64 bits for a larger range of hash values.

Usage:Utilized in high-performance computing environments where collisions need to be minimized.

Overview:FNV-1a 32-bit is a variant that alters the operation order for improved distribution.

Usage:Commonly implemented in data structures and lookup tables.

Overview:FNV-1a 64-bit provides a larger output for applications that require more distinct hash values.

Usage:Used in systems dealing with large keys or datasets.

Overview:GOST is a cryptographic hash function developed in the Soviet era and known for its unique design.

Usage:Often found in legacy systems and specific governmental applications.

Overview:An enhanced version of the original GOST, incorporating modern cryptographic improvements.

Usage:Utilized in scenarios where a mix of traditional and modern security is needed.

Overview:HAVAL is a variable-length hash function. The HAVAL128,3 variant produces a 128-bit hash in 3 rounds.

Usage:Ideal for applications requiring flexibility in security and performance.

Overview:Similar to HAVAL128,3 but with 4 rounds for a slightly higher security margin.

Usage:Used when a 128-bit output with additional processing is desired.

Overview:With 5 rounds, HAVAL128,5 increases complexity while maintaining a 128-bit output.

Usage:Chosen for environments that demand a stronger hash without moving to a larger digest.

Overview:Generates a 160-bit hash using 3 rounds, offering a longer digest for better collision resistance.

Usage:Often used in applications where data integrity is crucial.

Overview:Increases to 4 rounds while maintaining a 160-bit output, balancing security with performance.

Usage:Suitable for moderate-security applications.

Overview:With 5 rounds, this variant offers one of the highest security levels in the HAVAL160 series.

Usage:Ideal for systems requiring enhanced security measures.

Overview:Produces a 192-bit hash in 3 rounds, expanding the digest size to increase security.

Usage:Employed where data integrity is paramount.

Overview:Uses 4 rounds to produce a 192-bit hash, improving resistance to collisions.

Usage:Common in security-sensitive applications.

Overview:Offers the highest security in the 192-bit HAVAL variants with 5 rounds.

Usage:Selected when maximum security is required.

Overview:Generates a 224-bit hash in 3 rounds, offering a larger digest size.

Usage:Suitable for systems that need an extra layer of data integrity.

Overview:Uses 4 rounds for a 224-bit hash, balancing speed with increased security.

Usage:A common choice for applications requiring a moderate hash size.

Overview:With 5 rounds, HAVAL224,5 offers a highly secure 224-bit hash.

Usage:Best for critical systems where data protection is essential.

Overview:Produces a 256-bit hash in 3 rounds, providing a strong level of security.

Usage:Employed in applications with high data integrity requirements.

Overview:Uses 4 rounds to generate a 256-bit hash, enhancing complexity.

Usage:Suitable for more demanding security environments.

Overview:The most secure variant in the HAVAL256 family with 5 rounds.

Usage:Recommended for systems that require the highest level of protection.

Overview:Also known as Jenkins One-At-A-Time, JOAAT is a simple yet efficient hash function for quick lookups.

Usage:Mainly used in non-cryptographic applications like hash tables.

Overview:Developed by Ronald Rivest in the 1980s, MD2 was one of the first cryptographic hash functions but is now considered obsolete.

Usage:Historically used for message integrity; now mostly of academic interest due to its vulnerabilities.

Overview:Also designed by Rivest, MD4 improved speed over MD2 but soon fell out of favor due to its cryptographic weaknesses.

Usage:Mostly used in legacy systems or for historical reference.

Overview:MD5 is one of the most popular hash functions, yet it is now known to be vulnerable to collision attacks.

Usage:Commonly used for file checksums and non-security contexts, though not recommended for secure applications.

Overview:Murmur3A is a variant of the Murmur3 non-cryptographic hash function known for its speed and excellent distribution.

Usage:Used in hash-based data structures and in-memory lookup tables.

Overview:A variant optimized for different platforms, Murmur3C offers performance enhancements over standard implementations.

Usage:Selected based on system requirements and hardware optimizations.

Overview:Murmur3F is another alternative in the Murmur3 family focused on speed and low collision rates.

Usage:Ideal for systems that prioritize performance over cryptographic security.

Overview:RIPEMD-128 produces a 128-bit hash and was designed as an alternative to early MD algorithms.

Usage:Employed in digital signatures and other cryptographic applications.

Overview:Producing a 160-bit hash, RIPEMD-160 is more secure and has seen widespread use in blockchain and cryptographic protocols.

Usage:Commonly used for secure hashing in modern applications.

Overview:RIPEMD-256 extends the RIPEMD family to a 256-bit output for higher security.

Usage:Suitable for applications where a longer digest is required.

Overview:With a 320-bit output, RIPEMD-320 is one of the longest variants available in this family.

Usage:Employed in scenarios demanding extremely high data integrity.

Overview:SHA-1 was once the standard for secure hashing but is now considered weak due to collision vulnerabilities.

Usage:Mostly found in legacy systems; modern applications favor more secure algorithms.

Overview:A truncated version of SHA-256, SHA-224 produces a 224-bit hash with a good balance between security and performance.

Usage:Common in systems where a slightly shorter digest suffices.

Overview:SHA-256 is one of the most widely adopted cryptographic hash functions with a 256-bit output.

Usage:Employed extensively in digital security, including SSL certificates and blockchain technology.

Overview:Part of the SHA-2 family, SHA-384 produces a 384-bit hash with enhanced security.

Usage:Used in systems needing stronger security than SHA-256 while managing performance.

Overview:SHA3-224 is based on the Keccak algorithm and offers a 224-bit hash with an entirely new structure compared to SHA-2.

Usage:Adopted by developers seeking alternatives to traditional SHA-2 algorithms.

Overview:SHA3-256 provides a 256-bit hash using the modern Keccak sponge construction for high security.

Usage:Frequently implemented in cutting-edge cryptographic applications.

Overview:This variant produces a 384-bit hash under the SHA-3 standard, offering robust security.

Usage:Ideal for systems requiring a larger hash output than SHA3-256.

Overview:SHA3-512 generates a 512-bit hash and is among the most secure in the SHA-3 family.

Usage:Best suited for critical applications demanding maximum security.

Overview:Part of the SHA-2 family, SHA-512 produces a 512-bit digest with strong cryptographic properties.

Usage:Widely used in secure data transmission and password hashing.

Overview:This variant truncates the SHA-512 output to 224 bits, blending performance with security.

Usage:Useful when a shorter hash is needed while maintaining the underlying strength of SHA-512.

Overview:SHA512/256 derives a 256-bit hash from SHA-512, offering enhanced collision resistance compared to SHA-256.

Usage:Employed in scenarios requiring robust hash security.

Overview:SNEFRU is one of the earlier cryptographic hash functions developed in the late 1980s, laying the foundation for later designs.

Usage:Mainly of historical interest and used in some legacy applications.

Overview:An extension of the original SNEFRU algorithm, SNEFRU256 generates a 256-bit hash for improved security.

Usage:Used in contexts where a larger digest is beneficial.

Overview:TIGER is a cryptographic hash function optimized for 64-bit platforms. The TIGER128,3 variant produces a 128-bit output in 3 rounds.

Usage:Suitable for fast hashing with moderate security needs.

Overview:Increasing the rounds to 4 while still generating a 128-bit hash, TIGER128,4 offers a slightly enhanced security profile.

Usage:Used when extra security is required without greatly affecting performance.

Overview:TIGER160,3 produces a 160-bit hash using 3 rounds, providing a longer digest for better collision resistance.

Usage:Employed in systems that demand enhanced data integrity.

Overview:With 4 rounds, TIGER160,4 further enhances security while delivering a 160-bit hash.

Usage:Ideal for secure applications with a focus on fast processing.

Overview:TIGER192,3 produces a 192-bit hash in 3 rounds, offering one of the longer outputs in the TIGER family.

Usage:Suitable for applications requiring high integrity and collision resistance.

Overview:Increasing to 4 rounds, TIGER192,4 delivers a 192-bit hash with even greater security measures.

Usage:Employed in highly secure, mission-critical systems.

Overview:Whirlpool is a cryptographic hash function designed to generate a 512-bit hash. Its unique design and robust security make it popular in advanced cryptographic applications.

Usage:Used in digital signatures, advanced encryption systems, and file integrity verification.

Overview:XXH128 is a non-cryptographic hash function noted for its extremely fast performance and low collision rate in large datasets.

Usage:Ideal for checksums, deduplication, and data indexing.

Overview:A newer member of the XXH family, XXH3 provides even faster processing with strong distribution qualities.

Usage:Commonly used in modern systems for rapid hash generation.

Overview:XXH32 is a 32-bit hash function that offers a balance between speed and minimal resource usage.

Usage:Suited for lightweight applications where performance is paramount.

Overview:XXH64 delivers a 64-bit hash with a low collision probability, even with large volumes of data.

Usage:Widely used for file integrity checks and in systems where medium-to-large datasets are processed.