BLAKE2
BLAKE2b-256
BLAKE2b-256 is a fast modern digest from the BLAKE2 family.
- Output
- 256 bits
- Hex
- 64 chars
Reference
Compare all 35 supported algorithms. Security labels describe suitability for new integrity designs—not password storage.
BLAKE2
BLAKE2b-256 is a fast modern digest from the BLAKE2 family.
BLAKE2
BLAKE2b-384 is a fast modern digest from the BLAKE2 family.
BLAKE2
BLAKE2b-512 is a fast modern digest from the BLAKE2 family.
BLAKE2
BLAKE2s-256 is a fast modern digest from the BLAKE2 family.
BLAKE3
BLAKE3-256 is a highly parallel modern digest with extensible output.
BLAKE3
BLAKE3-512 is a highly parallel modern digest with extensible output.
GOST R 34.11-2012 (Streebog) is a standardized digest used in Russian cryptographic profiles.
GOST R 34.11-94 (CryptoPro) remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
SHA-3 / Keccak
Keccak-256 is the original Keccak padding variant and is not byte-for-byte interchangeable with standardized SHA-3.
SHA-3 / Keccak
Keccak-512 is the original Keccak padding variant and is not byte-for-byte interchangeable with standardized SHA-3.
Windows legacy authentication
LM is exposed only for compatibility with historical Windows authentication data.
MD2
MD2 is retained for compatibility and legacy checksum verification, not for new security designs.
MD4
MD4 is retained for compatibility and legacy checksum verification, not for new security designs.
MD5
MD5 is retained for compatibility and legacy checksum verification, not for new security designs.
Windows legacy authentication
NTLM is exposed only for compatibility with historical Windows authentication data.
RIPEMD
RIPEMD-128 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
RIPEMD
RIPEMD-160 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
RIPEMD
RIPEMD-256 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
RIPEMD
RIPEMD-320 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
SHA-2 / SHA-1
SHA-1 is widely interoperable but must not be used where collision resistance matters.
SHA-2 / SHA-1
SHA-224 is part of the widely deployed SHA-2 family.
SHA-2 / SHA-1
SHA-256 is part of the widely deployed SHA-2 family.
SHA-2 / SHA-1
SHA-384 is part of the widely deployed SHA-2 family.
SHA-2 / SHA-1
SHA-512 is part of the widely deployed SHA-2 family.
SHA-2 / SHA-1
SHA-512/224 is part of the widely deployed SHA-2 family.
SHA-2 / SHA-1
SHA-512/256 is part of the widely deployed SHA-2 family.
SHA-3 / Keccak
SHA3-224 is a standardized SHA-3 digest based on Keccak.
SHA-3 / Keccak
SHA3-256 is a standardized SHA-3 digest based on Keccak.
SHA-3 / Keccak
SHA3-384 is a standardized SHA-3 digest based on Keccak.
SHA-3 / Keccak
SHA3-512 is a standardized SHA-3 digest based on Keccak.
Snefru
Snefru-128 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
Snefru
Snefru-256 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
Tiger
Tiger/192 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
Tiger
Tiger2/192 remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
WHIRLPOOL
Whirlpool remains useful for interoperability, but mainstream modern protocols generally prefer SHA-256, SHA-3, BLAKE2, or BLAKE3.
No algorithms match that filter.