Table of Contents

Cryptographic Test Vectors

This folder contains test vectors for cryptographic hash algorithms from official sources.

Implementation Status

FIPS 180-4 (Secure Hash Standard)

Algorithm Hash Size Status Class
SHA-1 160 bits ✅ Implemented SHA1
SHA-224 224 bits ✅ Implemented SHA224
SHA-256 256 bits ✅ Implemented SHA256
SHA-384 384 bits ✅ Implemented SHA384
SHA-512 512 bits ✅ Implemented SHA512
SHA-512/224 224 bits ✅ Implemented SHA512_224
SHA-512/256 256 bits ✅ Implemented SHA512_256

FIPS 202 (SHA-3 Standard)

Algorithm Hash Size Status Class
SHA3-224 224 bits ✅ Implemented SHA3_224
SHA3-256 256 bits ✅ Implemented SHA3_256
SHA3-384 384 bits ✅ Implemented SHA3_384
SHA3-512 512 bits ✅ Implemented SHA3_512
SHAKE128 Variable ✅ Implemented Shake128
SHAKE256 Variable ✅ Implemented Shake256

NIST SP 800-185 (SHA-3 Derived Functions)

Algorithm Security Status Class
cSHAKE128 128 bits ✅ Implemented CShake128
cSHAKE256 256 bits ✅ Implemented CShake256
KMAC128 128 bits ✅ Implemented KMac128
KMAC256 256 bits ✅ Implemented KMac256
TupleHash128 128 bits ⬜ Not implemented -
TupleHash256 256 bits ⬜ Not implemented -
ParallelHash128 128 bits ⬜ Not implemented -
ParallelHash256 256 bits ⬜ Not implemented -

RFC 9861 (TurboSHAKE and KangarooTwelve)

Algorithm Security Status Class
TurboSHAKE128 128 bits ✅ Implemented TurboShake128
TurboSHAKE256 256 bits ✅ Implemented TurboShake256
KT128 128 bits ✅ Implemented KT128
KT256 256 bits ✅ Implemented KT256

Note: KT128 and KT256 (formerly KangarooTwelve and MarsupilamiFourteen) are defined in RFC 9861. They use reduced-round Keccak (12 rounds) for ~2× faster performance than SHAKE.

NIST FIPS 207 (Ascon Lightweight Cryptography)

Algorithm Hash Size Status Class
Ascon-Hash256 256 bits ✅ Implemented AsconHash256
Ascon-XOF128 Variable ✅ Implemented AsconXof128

Note: Ascon was selected as the NIST Lightweight Cryptography standard in 2023. It is designed for constrained environments (IoT, embedded systems).

Keccak (Original Algorithm)

Algorithm Hash Size Status Class
Keccak-256 256 bits ✅ Implemented Keccak256
Keccak-384 384 bits ✅ Implemented Keccak384
Keccak-512 512 bits ✅ Implemented Keccak512

Note: Keccak uses the original Keccak padding (0x01) as used in Ethereum. SHA-3 uses different padding (0x06). Use SHA3_256 for NIST SHA-3 compliance.

RFC 7693 (BLAKE2)

Algorithm Hash Size Features Status Class
BLAKE2b 1-64 bytes Hash, Keyed (MAC) ✅ Implemented Blake2b
BLAKE2s 1-32 bytes Hash, Keyed (MAC) ✅ Implemented Blake2s

BLAKE2 Features

Feature BLAKE2b BLAKE2s Description
Variable output ✅ ✅ Output size 1-64 bytes (b) or 1-32 bytes (s)
Keyed hashing (MAC) ✅ ✅ Built-in MAC mode with key up to 64/32 bytes
Salt ❌ ❌ Optional (not implemented)
Personalization ❌ ❌ Optional (not implemented)
Tree hashing ❌ ❌ Optional (not implemented)
Parallel variants ❌ ❌ BLAKE2bp/BLAKE2sp (not implemented)

BLAKE3

Algorithm Hash Size Features Status Class
BLAKE3 Variable Hash, Keyed, Derive Key ✅ Implemented Blake3

BLAKE3 Modes

Mode Status Factory Method Description
Hash ✅ Blake3.Create() Standard cryptographic hashing
Keyed Hash ✅ Blake3.CreateKeyed(key) MAC with 32-byte key
Derive Key ✅ Blake3.CreateDeriveKey(context) Key derivation from context + input
XOF ✅ Blake3.Create(outputBytes) Extendable output (any length)

RIPEMD Family

Algorithm Hash Size Status Class
RIPEMD-160 160 bits ✅ Implemented Ripemd160

Note: RIPEMD-160 is widely used in cryptocurrency systems (Bitcoin address generation).

SM3 (Chinese National Standard)

Algorithm Hash Size Status Class
SM3 256 bits ✅ Implemented SM3

Standard: GB/T 32905-2016 (China), ISO/IEC 10118-3:2018

Whirlpool (ISO/IEC 10118-3)

Algorithm Hash Size Status Class
Whirlpool 512 bits ✅ Implemented Whirlpool

Standard: ISO/IEC 10118-3:2004, NESSIE recommended

Streebog / GOST R 34.11-2012 (Russian National Standard)

Algorithm Hash Size Status Class
Streebog-256 256 bits ✅ Implemented Streebog
Streebog-512 512 bits ✅ Implemented Streebog

Standard: GOST R 34.11-2012, RFC 6986

Kupyna / DSTU 7564:2014 (Ukrainian National Standard)

Algorithm Hash Size Status Class
Kupyna-256 256 bits ✅ Implemented Kupyna
Kupyna-384 384 bits ✅ Implemented Kupyna
Kupyna-512 512 bits ✅ Implemented Kupyna

Standard: DSTU 7564:2014 (Ukraine)

Legacy Algorithms

Algorithm Hash Size Status Class
MD5 128 bits ✅ Implemented (deprecated) MD5

Warning: MD5 is cryptographically broken and should NOT be used for security purposes. It is provided only for legacy compatibility and non-cryptographic uses.

Sources

NIST (National Institute of Standards and Technology)

Official test vectors and examples with intermediate values are available from:

SHA-1 and SHA-2 Family (FIPS 180-4)

The official FIPS 180-4 specification is available from NIST:

  • NIST-FIPS-180-4.md - Local reference with algorithm details and test vectors
  • NIST FIPS 180-4 - Secure Hash Standard (SHS): SHA-1, SHA-224, SHA-256, SHA-384, SHA-512, SHA-512/224, SHA-512/256
SHA-1 (Legacy Only)
SHA-2 Family

SHA-3 and SHAKE (FIPS 202)

The official FIPS 202 specification is available from NIST:

  • NIST-FIPS-202.md - Local reference with algorithm details and test vectors
  • NIST FIPS 202 - SHA-3 Standard: Permutation-Based Hash and Extendable-Output Functions
Algorithm 0-bit 5-bit 30-bit 1600-bit 1605-bit 1630-bit
SHA3-224 Msg0 Msg5 Msg30 1600 1605 1630
SHA3-256 Msg0 Msg5 Msg30 1600 1605 1630
SHA3-384 Msg0 Msg5 Msg30 1600 1605 1630
SHA3-512 Msg0 Msg5 Msg30 1600 1605 1630

SHAKE XOF (FIPS 202)

Algorithm 0-bit 5-bit 30-bit 1600-bit 1605-bit 1630-bit
SHAKE128 Msg0 Msg5 Msg30 1600 1605 1630
SHAKE256 Msg0 Msg5 Msg30 1600 1605 1630

NIST SP 800-185 (SHA-3 Derived Functions)

Reference documentation for cSHAKE, KMAC, TupleHash, and ParallelHash:

BLAKE2 (RFC 7693)

The official RFC 7693 specification is available from IETF:

  • RFC 7693 - The BLAKE2 Cryptographic Hash and Message Authentication Code (MAC)

Additional BLAKE2 resources:

BLAKE3

BLAKE3 test vectors are from the official BLAKE3 specification:

RIPEMD-160

SM3 (GB/T 32905-2016)

  • SM3-vectors.md - Test vectors
  • GB/T 32905-2016 (Chinese national standard)
  • ISO/IEC 10118-3:2018

Whirlpool

Streebog (GOST R 34.11-2012)

Kupyna (DSTU 7564:2014)

MD5 (RFC 1321)

MD5 is defined in RFC 1321:

File Organization

specs/
├── README.md              # This file
├── toc.yml                # DocFX table of contents
├── NIST-FIPS-180-4.md     # NIST FIPS 180-4 - SHA-1, SHA-2 reference
├── NIST-FIPS-202.md       # NIST FIPS 202 - SHA-3, SHAKE reference
├── NIST-SP-800-185.md     # NIST SP 800-185 - cSHAKE, KMAC reference
├── SHA1-vectors.md        # SHA-1 test vectors (legacy)
├── SHA2-vectors.md        # SHA-2 family test vectors
├── SHA3-vectors.md        # SHA-3 family test vectors
├── SHAKE-vectors.md       # SHAKE128, SHAKE256 test vectors
├── Keccak-vectors.md      # Keccak-256, Keccak-384, Keccak-512 test vectors
├── KT-vectors.md          # KT128, KT256 (KangarooTwelve) test vectors
├── TurboSHAKE-vectors.md  # TurboSHAKE128, TurboSHAKE256 test vectors
├── Ascon-vectors.md       # Ascon-Hash256, Ascon-XOF128 test vectors
├── BLAKE2-vectors.md      # BLAKE2b, BLAKE2s test vectors
├── BLAKE3-vectors.md      # BLAKE3 test vectors
├── RIPEMD-160-vectors.md  # RIPEMD-160 test vectors
├── SM3-vectors.md         # SM3 test vectors
├── Whirlpool-vectors.md   # Whirlpool test vectors
├── Streebog-vectors.md    # Streebog (GOST) test vectors
├── Kupyna-vectors.md      # Kupyna (DSTU 7564) test vectors
└── MD5-vectors.md         # MD5 test vectors (legacy)

Usage

These test vectors are used by the unit tests in tests/Security/Cryptography/ to verify the correctness of our hash implementations against known good values from official sources.

License

The test vectors themselves are derived from public standards and specifications. See individual specification documents for their respective terms.

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