Filip Skokan committed 2026-03-26 22:04:32 +01:00
1 parent 329c8e7554
commit e0cab9dcf7
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@@ -2,6 +2,10 @@
<!-- YAML
changes:
- version: REPLACEME
pr-url: https://github.com/nodejs/node/pull/62183
description: TurboSHAKE and KangarooTwelve algorithms
are now supported.
- version: v24.8.0
pr-url: https://github.com/nodejs/node/pull/59647
description: KMAC algorithms are now supported.
@@ -122,6 +126,8 @@ Algorithms:
* `'cSHAKE256'`
* `'KMAC128'`[^openssl30]
* `'KMAC256'`[^openssl30]
* `'KT128'`
* `'KT256'`
* `'ML-DSA-44'`[^openssl35]
* `'ML-DSA-65'`[^openssl35]
* `'ML-DSA-87'`[^openssl35]
@@ -131,6 +137,8 @@ Algorithms:
* `'SHA3-256'`
* `'SHA3-384'`
* `'SHA3-512'`
* `'TurboSHAKE128'`
* `'TurboSHAKE256'`
Key Formats:
@@ -575,6 +583,8 @@ implementation and the APIs supported for each:
| `'HMAC'` | | ✔ | | | | |
| `'KMAC128'`[^modern-algos] | | ✔ | | | | |
| `'KMAC256'`[^modern-algos] | | ✔ | | | | |
| `'KT128'`[^modern-algos] | | | | | | ✔ |
| `'KT256'`[^modern-algos] | | | | | | ✔ |
| `'ML-DSA-44'`[^modern-algos] | | ✔ | | | | |
| `'ML-DSA-65'`[^modern-algos] | | ✔ | | | | |
| `'ML-DSA-87'`[^modern-algos] | | ✔ | | | | |
@@ -592,6 +602,8 @@ implementation and the APIs supported for each:
| `'SHA3-256'`[^modern-algos] | | | | | | ✔ |
| `'SHA3-384'`[^modern-algos] | | | | | | ✔ |
| `'SHA3-512'`[^modern-algos] | | | | | | ✔ |
| `'TurboSHAKE128'`[^modern-algos] | | | | | | ✔ |
| `'TurboSHAKE256'`[^modern-algos] | | | | | | ✔ |
| `'X25519'` | | | ✔ | | | |
| `'X448'`[^secure-curves] | | | ✔ | | | |
@@ -999,6 +1011,10 @@ The algorithms currently supported include:
<!-- YAML
added: v15.0.0
changes:
- version: REPLACEME
pr-url: https://github.com/nodejs/node/pull/62183
description: TurboSHAKE and KangarooTwelve algorithms
are now supported.
- version: v24.7.0
pr-url: https://github.com/nodejs/node/pull/59365
description: SHA-3 algorithms are now supported.
@@ -1007,7 +1023,7 @@ changes:
description: SHAKE algorithms are now supported.
-->
* `algorithm` {string|Algorithm|CShakeParams}
* `algorithm` {string|Algorithm|CShakeParams|TurboShakeParams|KangarooTwelveParams}
* `data` {ArrayBuffer|TypedArray|DataView|Buffer}
* Returns: {Promise} Fulfills with an {ArrayBuffer} upon success.
@@ -1019,6 +1035,8 @@ If `algorithm` is provided as a {string}, it must be one of:
* `'cSHAKE128'`[^modern-algos]
* `'cSHAKE256'`[^modern-algos]
* `'KT128'`[^modern-algos]
* `'KT256'`[^modern-algos]
* `'SHA-1'`
* `'SHA-256'`
* `'SHA-384'`
@@ -1026,6 +1044,8 @@ If `algorithm` is provided as a {string}, it must be one of:
* `'SHA3-256'`[^modern-algos]
* `'SHA3-384'`[^modern-algos]
* `'SHA3-512'`[^modern-algos]
* `'TurboSHAKE128'`[^modern-algos]
* `'TurboSHAKE256'`[^modern-algos]
If `algorithm` is provided as an {Object}, it must have a `name` property
whose value is one of the above.
@@ -2316,6 +2336,38 @@ added: v15.0.0
* Type: {string}
### Class: `KangarooTwelveParams`
<!-- YAML
added: REPLACEME
-->
#### `kangarooTwelveParams.customization`
<!-- YAML
added: REPLACEME
-->
* Type: {ArrayBuffer|TypedArray|DataView|Buffer|undefined}
The optional customization string for KangarooTwelve.
#### `kangarooTwelveParams.name`
<!-- YAML
added: REPLACEME
-->
* Type: {string} Must be `'KT128'`[^modern-algos] or `'KT256'`[^modern-algos]
#### `kangarooTwelveParams.outputLength`
<!-- YAML
added: REPLACEME
-->
* Type: {number} represents the requested output length in bits.
### Class: `KmacImportParams`
<!-- YAML
@@ -2686,6 +2738,38 @@ added: v15.0.0
The length (in bytes) of the random salt to use.
### Class: `TurboShakeParams`
<!-- YAML
added: REPLACEME
-->
#### `turboShakeParams.domainSeparation`
<!-- YAML
added: REPLACEME
-->
* Type: {number|undefined}
The optional domain separation byte (0x01-0x7f). Defaults to `0x1f`.
#### `turboShakeParams.name`
<!-- YAML
added: REPLACEME
-->
* Type: {string} Must be `'TurboSHAKE128'`[^modern-algos] or `'TurboSHAKE256'`[^modern-algos]
#### `turboShakeParams.outputLength`
<!-- YAML
added: REPLACEME
-->
* Type: {number} represents the requested output length in bits.
[^secure-curves]: See [Secure Curves in the Web Cryptography API][]
[^modern-algos]: See [Modern Algorithms in the Web Cryptography API][]
+20
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@@ -14,6 +14,8 @@ const {
Hmac: _Hmac,
kCryptoJobAsync,
oneShotDigest,
TurboShakeJob,
KangarooTwelveJob,
} = internalBinding('crypto');
const {
@@ -224,6 +226,24 @@ async function asyncDigest(algorithm, data) {
normalizeHashName(algorithm.name),
data,
algorithm.outputLength));
case 'TurboSHAKE128':
// Fall through
case 'TurboSHAKE256':
return await jobPromise(() => new TurboShakeJob(
kCryptoJobAsync,
algorithm.name,
algorithm.domainSeparation ?? 0x1f,
algorithm.outputLength / 8,
data));
case 'KT128':
// Fall through
case 'KT256':
return await jobPromise(() => new KangarooTwelveJob(
kCryptoJobAsync,
algorithm.name,
algorithm.customization,
algorithm.outputLength / 8,
data));
}
throw lazyDOMException('Unrecognized algorithm name', 'NotSupportedError');
+12
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@@ -244,6 +244,10 @@ const kAlgorithmDefinitions = {
},
'cSHAKE128': { 'digest': 'CShakeParams' },
'cSHAKE256': { 'digest': 'CShakeParams' },
'KT128': { 'digest': 'KangarooTwelveParams' },
'KT256': { 'digest': 'KangarooTwelveParams' },
'TurboSHAKE128': { 'digest': 'TurboShakeParams' },
'TurboSHAKE256': { 'digest': 'TurboShakeParams' },
'ECDH': {
'generateKey': 'EcKeyGenParams',
'exportKey': null,
@@ -441,6 +445,10 @@ const experimentalAlgorithms = [
'SHA3-256',
'SHA3-384',
'SHA3-512',
'TurboSHAKE128',
'TurboSHAKE256',
'KT128',
'KT256',
'X448',
];
@@ -513,6 +521,10 @@ const simpleAlgorithmDictionaries = {
KmacParams: {
customization: 'BufferSource',
},
KangarooTwelveParams: {
customization: 'BufferSource',
},
TurboShakeParams: {},
};
function validateMaxBufferLength(data, name) {
+46
View File
@@ -897,6 +897,52 @@ converters.KmacParams = createDictionaryConverter(
},
]);
converters.KangarooTwelveParams = createDictionaryConverter(
'KangarooTwelveParams', [
...new SafeArrayIterator(dictAlgorithm),
{
key: 'outputLength',
converter: (V, opts) =>
converters['unsigned long'](V, { ...opts, enforceRange: true }),
validator: (V, opts) => {
if (V === 0 || V % 8)
throw lazyDOMException('Invalid KangarooTwelveParams outputLength', 'OperationError');
},
required: true,
},
{
key: 'customization',
converter: converters.BufferSource,
},
]);
converters.TurboShakeParams = createDictionaryConverter(
'TurboShakeParams', [
...new SafeArrayIterator(dictAlgorithm),
{
key: 'outputLength',
converter: (V, opts) =>
converters['unsigned long'](V, { ...opts, enforceRange: true }),
validator: (V, opts) => {
if (V === 0 || V % 8)
throw lazyDOMException('Invalid TurboShakeParams outputLength', 'OperationError');
},
required: true,
},
{
key: 'domainSeparation',
converter: (V, opts) =>
converters.octet(V, { ...opts, enforceRange: true }),
validator: (V) => {
if (V < 0x01 || V > 0x7F) {
throw lazyDOMException(
'TurboShakeParams.domainSeparation must be in range 0x01-0x7f',
'OperationError');
}
},
},
]);
module.exports = {
converters,
requiredArguments,
+2
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@@ -390,6 +390,7 @@
'src/crypto/crypto_kem.cc',
'src/crypto/crypto_hmac.cc',
'src/crypto/crypto_kmac.cc',
'src/crypto/crypto_turboshake.cc',
'src/crypto/crypto_random.cc',
'src/crypto/crypto_rsa.cc',
'src/crypto/crypto_spkac.cc',
@@ -408,6 +409,7 @@
'src/crypto/crypto_dh.h',
'src/crypto/crypto_hmac.h',
'src/crypto/crypto_kmac.h',
'src/crypto/crypto_turboshake.h',
'src/crypto/crypto_rsa.h',
'src/crypto/crypto_spkac.h',
'src/crypto/crypto_util.h',
+642
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@@ -0,0 +1,642 @@
#include "crypto/crypto_turboshake.h"
#include "async_wrap-inl.h"
#include "node_internals.h"
#include "threadpoolwork-inl.h"
#include <cstring>
#include <vector>
namespace node::crypto {
using v8::FunctionCallbackInfo;
using v8::JustVoid;
using v8::Local;
using v8::Maybe;
using v8::MaybeLocal;
using v8::Nothing;
using v8::Object;
using v8::Uint32;
using v8::Value;
// ============================================================================
// Keccak-p[1600, n_r=12] permutation
// Reference: FIPS 202, Section 3.3 and 3.4; RFC 9861 Section 2.2
// Adapted from OpenSSL's keccak1600.c (KECCAK_REF variant)
// ============================================================================
namespace {
inline uint64_t ROL64(uint64_t val, int offset) {
DCHECK(offset >= 0 && offset < 64);
if (offset == 0) return val;
return (val << offset) | (val >> (64 - offset));
}
// Load/store 64-bit lanes in little-endian byte order.
// The Keccak state uses LE lane encoding (FIPS 202 Section 1, B.1).
// These helpers ensure correctness on both LE and BE platforms.
inline uint64_t LoadLE64(const uint8_t* src) {
return static_cast<uint64_t>(src[0]) | (static_cast<uint64_t>(src[1]) << 8) |
(static_cast<uint64_t>(src[2]) << 16) |
(static_cast<uint64_t>(src[3]) << 24) |
(static_cast<uint64_t>(src[4]) << 32) |
(static_cast<uint64_t>(src[5]) << 40) |
(static_cast<uint64_t>(src[6]) << 48) |
(static_cast<uint64_t>(src[7]) << 56);
}
inline void StoreLE64(uint8_t* dst, uint64_t val) {
dst[0] = static_cast<uint8_t>(val);
dst[1] = static_cast<uint8_t>(val >> 8);
dst[2] = static_cast<uint8_t>(val >> 16);
dst[3] = static_cast<uint8_t>(val >> 24);
dst[4] = static_cast<uint8_t>(val >> 32);
dst[5] = static_cast<uint8_t>(val >> 40);
dst[6] = static_cast<uint8_t>(val >> 48);
dst[7] = static_cast<uint8_t>(val >> 56);
}
static const unsigned char rhotates[5][5] = {
{0, 1, 62, 28, 27},
{36, 44, 6, 55, 20},
{3, 10, 43, 25, 39},
{41, 45, 15, 21, 8},
{18, 2, 61, 56, 14},
};
// Round constants for Keccak-f[1600].
// TurboSHAKE uses the last 12 rounds (indices 12..23).
static const uint64_t iotas[24] = {
0x0000000000000001ULL, 0x0000000000008082ULL, 0x800000000000808aULL,
0x8000000080008000ULL, 0x000000000000808bULL, 0x0000000080000001ULL,
0x8000000080008081ULL, 0x8000000000008009ULL, 0x000000000000008aULL,
0x0000000000000088ULL, 0x0000000080008009ULL, 0x000000008000000aULL,
0x000000008000808bULL, 0x800000000000008bULL, 0x8000000000008089ULL,
0x8000000000008003ULL, 0x8000000000008002ULL, 0x8000000000000080ULL,
0x000000000000800aULL, 0x800000008000000aULL, 0x8000000080008081ULL,
0x8000000000008080ULL, 0x0000000080000001ULL, 0x8000000080008008ULL,
};
// Keccak-p[1600, 12]: the reduced-round permutation used by TurboSHAKE.
void KeccakP1600_12(uint64_t A[5][5]) {
for (size_t round = 12; round < 24; round++) {
// Theta
uint64_t C[5];
for (size_t x = 0; x < 5; x++) {
C[x] = A[0][x] ^ A[1][x] ^ A[2][x] ^ A[3][x] ^ A[4][x];
}
uint64_t D[5];
for (size_t x = 0; x < 5; x++) {
D[x] = C[(x + 4) % 5] ^ ROL64(C[(x + 1) % 5], 1);
}
for (size_t y = 0; y < 5; y++) {
for (size_t x = 0; x < 5; x++) {
A[y][x] ^= D[x];
}
}
// Rho
for (size_t y = 0; y < 5; y++) {
for (size_t x = 0; x < 5; x++) {
A[y][x] = ROL64(A[y][x], rhotates[y][x]);
}
}
// Pi
uint64_t T[5][5];
memcpy(T, A, sizeof(T));
for (size_t y = 0; y < 5; y++) {
for (size_t x = 0; x < 5; x++) {
A[y][x] = T[x][(3 * y + x) % 5];
}
}
// Chi
for (size_t y = 0; y < 5; y++) {
uint64_t row[5];
for (size_t x = 0; x < 5; x++) {
row[x] = A[y][x] ^ (~A[y][(x + 1) % 5] & A[y][(x + 2) % 5]);
}
memcpy(A[y], row, sizeof(row));
}
// Iota
A[0][0] ^= iotas[round];
}
}
// ============================================================================
// TurboSHAKE sponge construction
// RFC 9861 Section 2.2, Appendix A.2/A.3
// ============================================================================
// TurboSHAKE128 rate = 168 bytes (1344 bits), capacity = 256 bits
// TurboSHAKE256 rate = 136 bytes (1088 bits), capacity = 512 bits
static constexpr size_t kTurboSHAKE128Rate = 168;
static constexpr size_t kTurboSHAKE256Rate = 136;
void TurboSHAKE(const uint8_t* input,
size_t input_len,
size_t rate,
uint8_t domain_sep,
uint8_t* output,
size_t output_len) {
uint64_t A[5][5] = {};
// Both rates (168, 136) are multiples of 8
size_t lane_count = rate / 8;
size_t offset = 0;
// Absorb complete blocks from input
while (offset + rate <= input_len) {
for (size_t i = 0; i < lane_count; i++) {
A[i / 5][i % 5] ^= LoadLE64(input + offset + i * 8);
}
KeccakP1600_12(A);
offset += rate;
}
// Absorb last (partial) block: remaining input bytes + domain_sep + padding
size_t remaining = input_len - offset;
uint8_t pad[168] = {}; // sized for max rate (TurboSHAKE128)
if (remaining > 0) {
memcpy(pad, input + offset, remaining);
}
pad[remaining] ^= domain_sep;
pad[rate - 1] ^= 0x80;
for (size_t i = 0; i < lane_count; i++) {
A[i / 5][i % 5] ^= LoadLE64(pad + i * 8);
}
KeccakP1600_12(A);
// Squeeze output
size_t out_offset = 0;
while (out_offset < output_len) {
size_t block = output_len - out_offset;
if (block > rate) block = rate;
size_t full_lanes = block / 8;
for (size_t i = 0; i < full_lanes; i++) {
StoreLE64(output + out_offset + i * 8, A[i / 5][i % 5]);
}
size_t rem = block % 8;
if (rem > 0) {
uint8_t tmp[8];
StoreLE64(tmp, A[full_lanes / 5][full_lanes % 5]);
memcpy(output + out_offset + full_lanes * 8, tmp, rem);
}
out_offset += block;
if (out_offset < output_len) {
KeccakP1600_12(A);
}
}
}
// Convenience wrappers
void TurboSHAKE128(const uint8_t* input,
size_t input_len,
uint8_t domain_sep,
uint8_t* output,
size_t output_len) {
TurboSHAKE(
input, input_len, kTurboSHAKE128Rate, domain_sep, output, output_len);
}
void TurboSHAKE256(const uint8_t* input,
size_t input_len,
uint8_t domain_sep,
uint8_t* output,
size_t output_len) {
TurboSHAKE(
input, input_len, kTurboSHAKE256Rate, domain_sep, output, output_len);
}
// ============================================================================
// KangarooTwelve tree hashing (RFC 9861 Section 3)
// ============================================================================
static constexpr size_t kChunkSize = 8192;
// length_encode(x): RFC 9861 Section 3.3
// Returns byte string x_(n-1) || ... || x_0 || n
// where x = sum of 256^i * x_i, n is smallest such that x < 256^n
std::vector<uint8_t> LengthEncode(size_t x) {
if (x == 0) {
return {0x00};
}
std::vector<uint8_t> result;
size_t val = x;
while (val > 0) {
result.push_back(static_cast<uint8_t>(val & 0xFF));
val >>= 8;
}
// Reverse to get big-endian: x_(n-1) || ... || x_0
size_t n = result.size();
for (size_t i = 0; i < n / 2; i++) {
std::swap(result[i], result[n - 1 - i]);
}
// Append n (the length of the encoding)
result.push_back(static_cast<uint8_t>(n));
return result;
}
using TurboSHAKEFn = void (*)(const uint8_t* input,
size_t input_len,
uint8_t domain_sep,
uint8_t* output,
size_t output_len);
void KangarooTwelve(const uint8_t* message,
size_t msg_len,
const uint8_t* customization,
size_t custom_len,
uint8_t* output,
size_t output_len,
TurboSHAKEFn turboshake,
size_t cv_len) {
// Build S = M || C || length_encode(|C|)
auto len_enc = LengthEncode(custom_len);
size_t s_len = msg_len + custom_len + len_enc.size();
// Short message path: |S| <= 8192
if (s_len <= kChunkSize) {
// Build S in a contiguous buffer
std::vector<uint8_t> s(s_len);
size_t pos = 0;
if (msg_len > 0) {
memcpy(s.data() + pos, message, msg_len);
pos += msg_len;
}
if (custom_len > 0) {
memcpy(s.data() + pos, customization, custom_len);
pos += custom_len;
}
memcpy(s.data() + pos, len_enc.data(), len_enc.size());
turboshake(s.data(), s_len, 0x07, output, output_len);
return;
}
// Long message path: tree hashing
// We need to process S in chunks, but S is virtual (M || C || length_encode)
// Build a helper to read from this virtual concatenation.
// First chunk is S[0:8192], compute chaining values for rest
// FinalNode = S[0:8192] || 0x03 || 0x00^7
// We need to read from S = M || C || length_encode(|C|)
// Helper lambda to copy from virtual S
auto read_s = [&](size_t s_offset, uint8_t* buf, size_t len) {
size_t copied = 0;
// Part 1: message
if (s_offset < msg_len && copied < len) {
size_t avail = msg_len - s_offset;
size_t to_copy = avail < (len - copied) ? avail : (len - copied);
memcpy(buf + copied, message + s_offset, to_copy);
copied += to_copy;
s_offset += to_copy;
}
// Part 2: customization
size_t custom_start = msg_len;
if (s_offset < custom_start + custom_len && copied < len) {
size_t off_in_custom = s_offset - custom_start;
size_t avail = custom_len - off_in_custom;
size_t to_copy = avail < (len - copied) ? avail : (len - copied);
memcpy(buf + copied, customization + off_in_custom, to_copy);
copied += to_copy;
s_offset += to_copy;
}
// Part 3: length_encode
size_t le_start = msg_len + custom_len;
if (s_offset < le_start + len_enc.size() && copied < len) {
size_t off_in_le = s_offset - le_start;
size_t avail = len_enc.size() - off_in_le;
size_t to_copy = avail < (len - copied) ? avail : (len - copied);
memcpy(buf + copied, len_enc.data() + off_in_le, to_copy);
copied += to_copy;
}
};
// Start building FinalNode
// FinalNode = S_0 || 0x03 0x00^7 || CV_1 || CV_2 || ... || CV_(n-1)
// || length_encode(n-1) || 0xFF 0xFF
// Read first chunk S_0
std::vector<uint8_t> first_chunk(kChunkSize);
read_s(0, first_chunk.data(), kChunkSize);
// Start FinalNode with S_0 || 0x03 || 0x00^7
std::vector<uint8_t> final_node;
final_node.reserve(kChunkSize + 8 + ((s_len / kChunkSize) * cv_len) + 16);
final_node.insert(final_node.end(), first_chunk.begin(), first_chunk.end());
final_node.push_back(0x03);
final_node.insert(final_node.end(), 7, 0x00);
// Process remaining chunks
size_t offset = kChunkSize;
size_t num_blocks = 0;
std::vector<uint8_t> chunk(kChunkSize);
std::vector<uint8_t> cv(cv_len);
while (offset < s_len) {
size_t block_size = s_len - offset;
if (block_size > kChunkSize) block_size = kChunkSize;
chunk.resize(block_size);
read_s(offset, chunk.data(), block_size);
// CV = TurboSHAKE(chunk, 0x0B, cv_len)
turboshake(chunk.data(), block_size, 0x0B, cv.data(), cv_len);
final_node.insert(final_node.end(), cv.begin(), cv.end());
num_blocks++;
offset += block_size;
}
// Append length_encode(num_blocks) || 0xFF 0xFF
auto num_blocks_enc = LengthEncode(num_blocks);
final_node.insert(
final_node.end(), num_blocks_enc.begin(), num_blocks_enc.end());
final_node.push_back(0xFF);
final_node.push_back(0xFF);
// Final hash
turboshake(final_node.data(), final_node.size(), 0x06, output, output_len);
}
void KT128(const uint8_t* message,
size_t msg_len,
const uint8_t* customization,
size_t custom_len,
uint8_t* output,
size_t output_len) {
KangarooTwelve(message,
msg_len,
customization,
custom_len,
output,
output_len,
TurboSHAKE128,
32);
}
void KT256(const uint8_t* message,
size_t msg_len,
const uint8_t* customization,
size_t custom_len,
uint8_t* output,
size_t output_len) {
KangarooTwelve(message,
msg_len,
customization,
custom_len,
output,
output_len,
TurboSHAKE256,
64);
}
} // anonymous namespace
// ============================================================================
// TurboShake bindings
// ============================================================================
TurboShakeConfig::TurboShakeConfig(TurboShakeConfig&& other) noexcept
: job_mode(other.job_mode),
variant(other.variant),
output_length(other.output_length),
domain_separation(other.domain_separation),
data(std::move(other.data)) {}
TurboShakeConfig& TurboShakeConfig::operator=(
TurboShakeConfig&& other) noexcept {
if (&other == this) return *this;
this->~TurboShakeConfig();
return *new (this) TurboShakeConfig(std::move(other));
}
void TurboShakeConfig::MemoryInfo(MemoryTracker* tracker) const {
if (job_mode == kCryptoJobAsync) {
// TODO(addaleax): Implement MemoryRetainer protocol for ByteSource
tracker->TrackFieldWithSize("data", data.size());
}
}
Maybe<void> TurboShakeTraits::AdditionalConfig(
CryptoJobMode mode,
const FunctionCallbackInfo<Value>& args,
unsigned int offset,
TurboShakeConfig* params) {
Environment* env = Environment::GetCurrent(args);
params->job_mode = mode;
// args[offset + 0] = algorithm name (string)
CHECK(args[offset]->IsString());
Utf8Value algorithm_name(env->isolate(), args[offset]);
std::string_view alg = algorithm_name.ToStringView();
if (alg == "TurboSHAKE128") {
params->variant = TurboShakeVariant::TurboSHAKE128;
} else if (alg == "TurboSHAKE256") {
params->variant = TurboShakeVariant::TurboSHAKE256;
} else {
UNREACHABLE();
}
// args[offset + 1] = domain separation byte (uint32)
CHECK(args[offset + 1]->IsUint32());
params->domain_separation =
static_cast<uint8_t>(args[offset + 1].As<Uint32>()->Value());
CHECK_GE(params->domain_separation, 0x01);
CHECK_LE(params->domain_separation, 0x7F);
// args[offset + 2] = output length in bytes (uint32)
CHECK(args[offset + 2]->IsUint32());
params->output_length = args[offset + 2].As<Uint32>()->Value();
// args[offset + 3] = data (ArrayBuffer/View)
ArrayBufferOrViewContents<char> data(args[offset + 3]);
if (!data.CheckSizeInt32()) [[unlikely]] {
THROW_ERR_OUT_OF_RANGE(env, "data is too big");
return Nothing<void>();
}
params->data = mode == kCryptoJobAsync ? data.ToCopy() : data.ToByteSource();
return JustVoid();
}
bool TurboShakeTraits::DeriveBits(Environment* env,
const TurboShakeConfig& params,
ByteSource* out,
CryptoJobMode mode) {
CHECK_GT(params.output_length, 0);
char* buf = MallocOpenSSL<char>(params.output_length);
const uint8_t* input = reinterpret_cast<const uint8_t*>(params.data.data());
size_t input_len = params.data.size();
switch (params.variant) {
case TurboShakeVariant::TurboSHAKE128:
TurboSHAKE128(input,
input_len,
params.domain_separation,
reinterpret_cast<uint8_t*>(buf),
params.output_length);
break;
case TurboShakeVariant::TurboSHAKE256:
TurboSHAKE256(input,
input_len,
params.domain_separation,
reinterpret_cast<uint8_t*>(buf),
params.output_length);
break;
}
*out = ByteSource::Allocated(buf, params.output_length);
return true;
}
MaybeLocal<Value> TurboShakeTraits::EncodeOutput(Environment* env,
const TurboShakeConfig& params,
ByteSource* out) {
return out->ToArrayBuffer(env);
}
// ============================================================================
// KangarooTwelve bindings
// ============================================================================
KangarooTwelveConfig::KangarooTwelveConfig(
KangarooTwelveConfig&& other) noexcept
: job_mode(other.job_mode),
variant(other.variant),
output_length(other.output_length),
data(std::move(other.data)),
customization(std::move(other.customization)) {}
KangarooTwelveConfig& KangarooTwelveConfig::operator=(
KangarooTwelveConfig&& other) noexcept {
if (&other == this) return *this;
this->~KangarooTwelveConfig();
return *new (this) KangarooTwelveConfig(std::move(other));
}
void KangarooTwelveConfig::MemoryInfo(MemoryTracker* tracker) const {
if (job_mode == kCryptoJobAsync) {
// TODO(addaleax): Implement MemoryRetainer protocol for ByteSource
tracker->TrackFieldWithSize("data", data.size());
tracker->TrackFieldWithSize("customization", customization.size());
}
}
Maybe<void> KangarooTwelveTraits::AdditionalConfig(
CryptoJobMode mode,
const FunctionCallbackInfo<Value>& args,
unsigned int offset,
KangarooTwelveConfig* params) {
Environment* env = Environment::GetCurrent(args);
params->job_mode = mode;
// args[offset + 0] = algorithm name (string)
CHECK(args[offset]->IsString());
Utf8Value algorithm_name(env->isolate(), args[offset]);
std::string_view alg = algorithm_name.ToStringView();
if (alg == "KT128") {
params->variant = KangarooTwelveVariant::KT128;
} else if (alg == "KT256") {
params->variant = KangarooTwelveVariant::KT256;
} else {
UNREACHABLE();
}
// args[offset + 1] = customization (BufferSource or undefined)
if (!args[offset + 1]->IsUndefined()) {
ArrayBufferOrViewContents<char> customization(args[offset + 1]);
if (!customization.CheckSizeInt32()) [[unlikely]] {
THROW_ERR_OUT_OF_RANGE(env, "customization is too big");
return Nothing<void>();
}
params->customization = mode == kCryptoJobAsync
? customization.ToCopy()
: customization.ToByteSource();
}
// args[offset + 2] = output length in bytes (uint32)
CHECK(args[offset + 2]->IsUint32());
params->output_length = args[offset + 2].As<Uint32>()->Value();
// args[offset + 3] = data (ArrayBuffer/View)
ArrayBufferOrViewContents<char> data(args[offset + 3]);
if (!data.CheckSizeInt32()) [[unlikely]] {
THROW_ERR_OUT_OF_RANGE(env, "data is too big");
return Nothing<void>();
}
params->data = mode == kCryptoJobAsync ? data.ToCopy() : data.ToByteSource();
return JustVoid();
}
bool KangarooTwelveTraits::DeriveBits(Environment* env,
const KangarooTwelveConfig& params,
ByteSource* out,
CryptoJobMode mode) {
CHECK_GT(params.output_length, 0);
char* buf = MallocOpenSSL<char>(params.output_length);
const uint8_t* input = reinterpret_cast<const uint8_t*>(params.data.data());
size_t input_len = params.data.size();
const uint8_t* custom =
reinterpret_cast<const uint8_t*>(params.customization.data());
size_t custom_len = params.customization.size();
switch (params.variant) {
case KangarooTwelveVariant::KT128:
KT128(input,
input_len,
custom,
custom_len,
reinterpret_cast<uint8_t*>(buf),
params.output_length);
break;
case KangarooTwelveVariant::KT256:
KT256(input,
input_len,
custom,
custom_len,
reinterpret_cast<uint8_t*>(buf),
params.output_length);
break;
}
*out = ByteSource::Allocated(buf, params.output_length);
return true;
}
MaybeLocal<Value> KangarooTwelveTraits::EncodeOutput(
Environment* env, const KangarooTwelveConfig& params, ByteSource* out) {
return out->ToArrayBuffer(env);
}
// ============================================================================
// Registration
// ============================================================================
void TurboShake::Initialize(Environment* env, Local<Object> target) {
TurboShakeJob::Initialize(env, target);
KangarooTwelveJob::Initialize(env, target);
}
void TurboShake::RegisterExternalReferences(
ExternalReferenceRegistry* registry) {
TurboShakeJob::RegisterExternalReferences(registry);
KangarooTwelveJob::RegisterExternalReferences(registry);
}
} // namespace node::crypto
+105
View File
@@ -0,0 +1,105 @@
#ifndef SRC_CRYPTO_CRYPTO_TURBOSHAKE_H_
#define SRC_CRYPTO_CRYPTO_TURBOSHAKE_H_
#if defined(NODE_WANT_INTERNALS) && NODE_WANT_INTERNALS
#include "crypto/crypto_util.h"
namespace node::crypto {
enum class TurboShakeVariant { TurboSHAKE128, TurboSHAKE256 };
struct TurboShakeConfig final : public MemoryRetainer {
CryptoJobMode job_mode;
TurboShakeVariant variant;
uint32_t output_length; // Output length in bytes
uint8_t domain_separation; // Domain separation byte (0x01–0x7F)
ByteSource data;
TurboShakeConfig() = default;
explicit TurboShakeConfig(TurboShakeConfig&& other) noexcept;
TurboShakeConfig& operator=(TurboShakeConfig&& other) noexcept;
void MemoryInfo(MemoryTracker* tracker) const override;
SET_MEMORY_INFO_NAME(TurboShakeConfig)
SET_SELF_SIZE(TurboShakeConfig)
};
struct TurboShakeTraits final {
using AdditionalParameters = TurboShakeConfig;
static constexpr const char* JobName = "TurboShakeJob";
static constexpr AsyncWrap::ProviderType Provider =
AsyncWrap::PROVIDER_DERIVEBITSREQUEST;
static v8::Maybe<void> AdditionalConfig(
CryptoJobMode mode,
const v8::FunctionCallbackInfo<v8::Value>& args,
unsigned int offset,
TurboShakeConfig* params);
static bool DeriveBits(Environment* env,
const TurboShakeConfig& params,
ByteSource* out,
CryptoJobMode mode);
static v8::MaybeLocal<v8::Value> EncodeOutput(Environment* env,
const TurboShakeConfig& params,
ByteSource* out);
};
using TurboShakeJob = DeriveBitsJob<TurboShakeTraits>;
enum class KangarooTwelveVariant { KT128, KT256 };
struct KangarooTwelveConfig final : public MemoryRetainer {
CryptoJobMode job_mode;
KangarooTwelveVariant variant;
uint32_t output_length; // Output length in bytes
ByteSource data;
ByteSource customization;
KangarooTwelveConfig() = default;
explicit KangarooTwelveConfig(KangarooTwelveConfig&& other) noexcept;
KangarooTwelveConfig& operator=(KangarooTwelveConfig&& other) noexcept;
void MemoryInfo(MemoryTracker* tracker) const override;
SET_MEMORY_INFO_NAME(KangarooTwelveConfig)
SET_SELF_SIZE(KangarooTwelveConfig)
};
struct KangarooTwelveTraits final {
using AdditionalParameters = KangarooTwelveConfig;
static constexpr const char* JobName = "KangarooTwelveJob";
static constexpr AsyncWrap::ProviderType Provider =
AsyncWrap::PROVIDER_DERIVEBITSREQUEST;
static v8::Maybe<void> AdditionalConfig(
CryptoJobMode mode,
const v8::FunctionCallbackInfo<v8::Value>& args,
unsigned int offset,
KangarooTwelveConfig* params);
static bool DeriveBits(Environment* env,
const KangarooTwelveConfig& params,
ByteSource* out,
CryptoJobMode mode);
static v8::MaybeLocal<v8::Value> EncodeOutput(
Environment* env, const KangarooTwelveConfig& params, ByteSource* out);
};
using KangarooTwelveJob = DeriveBitsJob<KangarooTwelveTraits>;
namespace TurboShake {
void Initialize(Environment* env, v8::Local<v8::Object> target);
void RegisterExternalReferences(ExternalReferenceRegistry* registry);
} // namespace TurboShake
} // namespace node::crypto
#endif // defined(NODE_WANT_INTERNALS) && NODE_WANT_INTERNALS
#endif // SRC_CRYPTO_CRYPTO_TURBOSHAKE_H_
+4 -1
View File
@@ -75,6 +75,8 @@ namespace crypto {
#define KMAC_NAMESPACE_LIST(V)
#endif
#define TURBOSHAKE_NAMESPACE_LIST(V) V(TurboShake)
#ifdef OPENSSL_NO_SCRYPT
#define SCRYPT_NAMESPACE_LIST(V)
#else
@@ -86,7 +88,8 @@ namespace crypto {
ARGON2_NAMESPACE_LIST(V) \
KEM_NAMESPACE_LIST(V) \
KMAC_NAMESPACE_LIST(V) \
SCRYPT_NAMESPACE_LIST(V)
SCRYPT_NAMESPACE_LIST(V) \
TURBOSHAKE_NAMESPACE_LIST(V)
void Initialize(Local<Object> target,
Local<Value> unused,
+1
View File
@@ -55,6 +55,7 @@
#include "crypto/crypto_spkac.h"
#include "crypto/crypto_timing.h"
#include "crypto/crypto_tls.h"
#include "crypto/crypto_turboshake.h"
#include "crypto/crypto_util.h"
#include "crypto/crypto_x509.h"
+24
View File
@@ -28,6 +28,30 @@ export const vectors = {
[false, { name: 'cSHAKE256', outputLength: 256, functionName: Buffer.alloc(1) }],
[false, { name: 'cSHAKE256', outputLength: 256, customization: Buffer.alloc(1) }],
[false, { name: 'cSHAKE256', outputLength: 255 }],
[false, 'TurboSHAKE128'],
[true, { name: 'TurboSHAKE128', outputLength: 128 }],
[true, { name: 'TurboSHAKE128', outputLength: 128, domainSeparation: 0x07 }],
[false, { name: 'TurboSHAKE128', outputLength: 0 }],
[false, { name: 'TurboSHAKE128', outputLength: 127 }],
[false, { name: 'TurboSHAKE128', outputLength: 128, domainSeparation: 0x00 }],
[false, { name: 'TurboSHAKE128', outputLength: 128, domainSeparation: 0x80 }],
[false, 'TurboSHAKE256'],
[true, { name: 'TurboSHAKE256', outputLength: 256 }],
[true, { name: 'TurboSHAKE256', outputLength: 256, domainSeparation: 0x07 }],
[false, { name: 'TurboSHAKE256', outputLength: 0 }],
[false, { name: 'TurboSHAKE256', outputLength: 255 }],
[false, { name: 'TurboSHAKE256', outputLength: 256, domainSeparation: 0x00 }],
[false, { name: 'TurboSHAKE256', outputLength: 256, domainSeparation: 0x80 }],
[false, 'KT128'],
[true, { name: 'KT128', outputLength: 128 }],
[true, { name: 'KT128', outputLength: 128, customization: Buffer.alloc(0) }],
[false, { name: 'KT128', outputLength: 0 }],
[false, { name: 'KT128', outputLength: 127 }],
[false, 'KT256'],
[true, { name: 'KT256', outputLength: 256 }],
[true, { name: 'KT256', outputLength: 256, customization: Buffer.alloc(0) }],
[false, { name: 'KT256', outputLength: 0 }],
[false, { name: 'KT256', outputLength: 255 }],
],
'sign': [
[pqc, 'ML-DSA-44'],
@@ -0,0 +1,399 @@
'use strict';
const common = require('../common');
if (!common.hasCrypto)
common.skip('missing crypto');
const assert = require('assert');
const { subtle } = globalThis.crypto;
// RFC 9861 Section 5 test vectors
// Generates a Buffer of length n by repeating the pattern 00 01 02 .. F9 FA.
function ptn(n) {
const buf = Buffer.allocUnsafe(n);
for (let i = 0; i < n; i++)
buf[i] = i % 251;
return buf;
}
assert.deepStrictEqual(
ptn(17 ** 2).toString('hex'),
'000102030405060708090a0b0c0d0e0f' +
'101112131415161718191a1b1c1d1e1f' +
'202122232425262728292a2b2c2d2e2f' +
'303132333435363738393a3b3c3d3e3f' +
'404142434445464748494a4b4c4d4e4f' +
'505152535455565758595a5b5c5d5e5f' +
'606162636465666768696a6b6c6d6e6f' +
'707172737475767778797a7b7c7d7e7f' +
'808182838485868788898a8b8c8d8e8f' +
'909192939495969798999a9b9c9d9e9f' +
'a0a1a2a3a4a5a6a7a8a9aaabacadaeaf' +
'b0b1b2b3b4b5b6b7b8b9babbbcbdbebf' +
'c0c1c2c3c4c5c6c7c8c9cacbcccdcecf' +
'd0d1d2d3d4d5d6d7d8d9dadbdcdddedf' +
'e0e1e2e3e4e5e6e7e8e9eaebecedeeef' +
'f0f1f2f3f4f5f6f7f8f9fa0001020304' +
'05060708090a0b0c0d0e0f1011121314' +
'15161718191a1b1c1d1e1f2021222324' +
'25',
);
const turboSHAKE128Vectors = [
// [input, outputLengthBytes, expected(, domainSeparation)]
[new Uint8Array(0), 32,
'1e415f1c5983aff2169217277d17bb53' +
'8cd945a397ddec541f1ce41af2c1b74c'],
[new Uint8Array(0), 64,
'1e415f1c5983aff2169217277d17bb53' +
'8cd945a397ddec541f1ce41af2c1b74c' +
'3e8ccae2a4dae56c84a04c2385c03c15' +
'e8193bdf58737363321691c05462c8df'],
[ptn(17 ** 0), 32,
'55cedd6f60af7bb29a4042ae832ef3f5' +
'8db7299f893ebb9247247d856958daa9'],
[ptn(17 ** 1), 32,
'9c97d036a3bac819db70ede0ca554ec6' +
'e4c2a1a4ffbfd9ec269ca6a111161233'],
[ptn(17 ** 2), 32,
'96c77c279e0126f7fc07c9b07f5cdae1' +
'e0be60bdbe10620040e75d7223a624d2'],
[ptn(17 ** 3), 32,
'd4976eb56bcf118520582b709f73e1d6' +
'853e001fdaf80e1b13e0d0599d5fb372'],
[ptn(17 ** 4), 32,
'da67c7039e98bf530cf7a37830c6664e' +
'14cbab7f540f58403b1b82951318ee5c'],
[ptn(17 ** 5), 32,
'b97a906fbf83ef7c812517abf3b2d0ae' +
'a0c4f60318ce11cf103925127f59eecd'],
[ptn(17 ** 6), 32,
'35cd494adeded2f25239af09a7b8ef0c' +
'4d1ca4fe2d1ac370fa63216fe7b4c2b1'],
[Buffer.from('ffffff', 'hex'), 32,
'bf323f940494e88ee1c540fe660be8a0' +
'c93f43d15ec006998462fa994eed5dab', 0x01],
[Buffer.from('ff', 'hex'), 32,
'8ec9c66465ed0d4a6c35d13506718d68' +
'7a25cb05c74cca1e42501abd83874a67', 0x06],
[Buffer.from('ffffff', 'hex'), 32,
'b658576001cad9b1e5f399a9f77723bb' +
'a05458042d68206f7252682dba3663ed', 0x07],
[Buffer.from('ffffffffffffff', 'hex'), 32,
'8deeaa1aec47ccee569f659c21dfa8e1' +
'12db3cee37b18178b2acd805b799cc37', 0x0b],
[Buffer.from('ff', 'hex'), 32,
'553122e2135e363c3292bed2c6421fa2' +
'32bab03daa07c7d6636603286506325b', 0x30],
[Buffer.from('ffffff', 'hex'), 32,
'16274cc656d44cefd422395d0f9053bd' +
'a6d28e122aba15c765e5ad0e6eaf26f9', 0x7f],
];
const turboSHAKE256Vectors = [
// [input, outputLengthBytes, expected(, domainSeparation)]
[new Uint8Array(0), 64,
'367a329dafea871c7802ec67f905ae13' +
'c57695dc2c6663c61035f59a18f8e7db' +
'11edc0e12e91ea60eb6b32df06dd7f00' +
'2fbafabb6e13ec1cc20d995547600db0'],
[ptn(17 ** 0), 64,
'3e1712f928f8eaf1054632b2aa0a246e' +
'd8b0c378728f60bc970410155c28820e' +
'90cc90d8a3006aa2372c5c5ea176b068' +
'2bf22bae7467ac94f74d43d39b0482e2'],
[ptn(17 ** 1), 64,
'b3bab0300e6a191fbe61379398359235' +
'78794ea54843f5011090fa2f3780a9e5' +
'cb22c59d78b40a0fbff9e672c0fbe097' +
'0bd2c845091c6044d687054da5d8e9c7'],
[ptn(17 ** 2), 64,
'66b810db8e90780424c0847372fdc957' +
'10882fde31c6df75beb9d4cd9305cfca' +
'e35e7b83e8b7e6eb4b78605880116316' +
'fe2c078a09b94ad7b8213c0a738b65c0'],
[ptn(17 ** 3), 64,
'c74ebc919a5b3b0dd1228185ba02d29e' +
'f442d69d3d4276a93efe0bf9a16a7dc0' +
'cd4eabadab8cd7a5edd96695f5d360ab' +
'e09e2c6511a3ec397da3b76b9e1674fb'],
[ptn(17 ** 4), 64,
'02cc3a8897e6f4f6ccb6fd46631b1f52' +
'07b66c6de9c7b55b2d1a23134a170afd' +
'ac234eaba9a77cff88c1f020b7372461' +
'8c5687b362c430b248cd38647f848a1d'],
[ptn(17 ** 5), 64,
'add53b06543e584b5823f626996aee50' +
'fe45ed15f20243a7165485acb4aa76b4' +
'ffda75cedf6d8cdc95c332bd56f4b986' +
'b58bb17d1778bfc1b1a97545cdf4ec9f'],
[ptn(17 ** 6), 64,
'9e11bc59c24e73993c1484ec66358ef7' +
'1db74aefd84e123f7800ba9c4853e02c' +
'fe701d9e6bb765a304f0dc34a4ee3ba8' +
'2c410f0da70e86bfbd90ea877c2d6104'],
[Buffer.from('ffffff', 'hex'), 64,
'd21c6fbbf587fa2282f29aea620175fb' +
'0257413af78a0b1b2a87419ce031d933' +
'ae7a4d383327a8a17641a34f8a1d1003' +
'ad7da6b72dba84bb62fef28f62f12424', 0x01],
[Buffer.from('ff', 'hex'), 64,
'738d7b4e37d18b7f22ad1b5313e357e3' +
'dd7d07056a26a303c433fa3533455280' +
'f4f5a7d4f700efb437fe6d281405e07b' +
'e32a0a972e22e63adc1b090daefe004b', 0x06],
[Buffer.from('ffffff', 'hex'), 64,
'18b3b5b7061c2e67c1753a00e6ad7ed7' +
'ba1c906cf93efb7092eaf27fbeebb755' +
'ae6e292493c110e48d260028492b8e09' +
'b5500612b8f2578985ded5357d00ec67', 0x07],
[Buffer.from('ffffffffffffff', 'hex'), 64,
'bb36764951ec97e9d85f7ee9a67a7718' +
'fc005cf42556be79ce12c0bde50e5736' +
'd6632b0d0dfb202d1bbb8ffe3dd74cb0' +
'0834fa756cb03471bab13a1e2c16b3c0', 0x0b],
[Buffer.from('ff', 'hex'), 64,
'f3fe12873d34bcbb2e608779d6b70e7f' +
'86bec7e90bf113cbd4fdd0c4e2f4625e' +
'148dd7ee1a52776cf77f240514d9ccfc' +
'3b5ddab8ee255e39ee389072962c111a', 0x30],
[Buffer.from('ffffff', 'hex'), 64,
'abe569c1f77ec340f02705e7d37c9ab7' +
'e155516e4a6a150021d70b6fac0bb40c' +
'069f9a9828a0d575cd99f9bae435ab1a' +
'cf7ed9110ba97ce0388d074bac768776', 0x7f],
];
const kt128Vectors = [
// [input, outputLengthBytes, expected(, customization)]
[new Uint8Array(0), 32,
'1ac2d450fc3b4205d19da7bfca1b3751' +
'3c0803577ac7167f06fe2ce1f0ef39e5'],
[new Uint8Array(0), 64,
'1ac2d450fc3b4205d19da7bfca1b3751' +
'3c0803577ac7167f06fe2ce1f0ef39e5' +
'4269c056b8c82e48276038b6d292966c' +
'c07a3d4645272e31ff38508139eb0a71'],
[ptn(1), 32,
'2bda92450e8b147f8a7cb629e784a058' +
'efca7cf7d8218e02d345dfaa65244a1f'],
[ptn(17), 32,
'6bf75fa2239198db4772e36478f8e19b' +
'0f371205f6a9a93a273f51df37122888'],
[ptn(17 ** 2), 32,
'0c315ebcdedbf61426de7dcf8fb725d1' +
'e74675d7f5327a5067f367b108ecb67c'],
[ptn(17 ** 3), 32,
'cb552e2ec77d9910701d578b457ddf77' +
'2c12e322e4ee7fe417f92c758f0d59d0'],
[ptn(17 ** 4), 32,
'8701045e22205345ff4dda05555cbb5c' +
'3af1a771c2b89baef37db43d9998b9fe'],
[ptn(17 ** 5), 32,
'844d610933b1b9963cbdeb5ae3b6b05c' +
'c7cbd67ceedf883eb678a0a8e0371682'],
[ptn(17 ** 6), 32,
'3c390782a8a4e89fa6367f72feaaf132' +
'55c8d95878481d3cd8ce85f58e880af8'],
[new Uint8Array(0), 32,
'fab658db63e94a246188bf7af69a1330' +
'45f46ee984c56e3c3328caaf1aa1a583', ptn(1)],
[Buffer.from('ff', 'hex'), 32,
'd848c5068ced736f4462159b9867fd4c' +
'20b808acc3d5bc48e0b06ba0a3762ec4', ptn(41)],
[Buffer.from('ffffff', 'hex'), 32,
'c389e5009ae57120854c2e8c64670ac0' +
'1358cf4c1baf89447a724234dc7ced74', ptn(41 ** 2)],
[Buffer.from('ffffffffffffff', 'hex'), 32,
'75d2f86a2e644566726b4fbcfc5657b9' +
'dbcf070c7b0dca06450ab291d7443bcf', ptn(41 ** 3)],
[ptn(8191), 32,
'1b577636f723643e990cc7d6a6598374' +
'36fd6a103626600eb8301cd1dbe553d6'],
[ptn(8192), 32,
'48f256f6772f9edfb6a8b661ec92dc93' +
'b95ebd05a08a17b39ae3490870c926c3'],
[ptn(8192), 32,
'3ed12f70fb05ddb58689510ab3e4d23c' +
'6c6033849aa01e1d8c220a297fedcd0b', ptn(8189)],
[ptn(8192), 32,
'6a7c1b6a5cd0d8c9ca943a4a216cc646' +
'04559a2ea45f78570a15253d67ba00ae', ptn(8190)],
];
const kt256Vectors = [
// [input, outputLengthBytes, expected(, customization)]
[new Uint8Array(0), 64,
'b23d2e9cea9f4904e02bec06817fc10c' +
'e38ce8e93ef4c89e6537076af8646404' +
'e3e8b68107b8833a5d30490aa3348235' +
'3fd4adc7148ecb782855003aaebde4a9'],
[new Uint8Array(0), 128,
'b23d2e9cea9f4904e02bec06817fc10c' +
'e38ce8e93ef4c89e6537076af8646404' +
'e3e8b68107b8833a5d30490aa3348235' +
'3fd4adc7148ecb782855003aaebde4a9' +
'b0925319d8ea1e121a609821ec19efea' +
'89e6d08daee1662b69c840289f188ba8' +
'60f55760b61f82114c030c97e5178449' +
'608ccd2cd2d919fc7829ff69931ac4d0'],
[ptn(1), 64,
'0d005a194085360217128cf17f91e1f7' +
'1314efa5564539d444912e3437efa17f' +
'82db6f6ffe76e781eaa068bce01f2bbf' +
'81eacb983d7230f2fb02834a21b1ddd0'],
[ptn(17), 64,
'1ba3c02b1fc514474f06c8979978a905' +
'6c8483f4a1b63d0dccefe3a28a2f323e' +
'1cdcca40ebf006ac76ef039715234683' +
'7b1277d3e7faa9c9653b19075098527b'],
[ptn(17 ** 2), 64,
'de8ccbc63e0f133ebb4416814d4c66f6' +
'91bbf8b6a61ec0a7700f836b086cb029' +
'd54f12ac7159472c72db118c35b4e6aa' +
'213c6562caaa9dcc518959e69b10f3ba'],
[ptn(17 ** 3), 64,
'647efb49fe9d717500171b41e7f11bd4' +
'91544443209997ce1c2530d15eb1ffbb' +
'598935ef954528ffc152b1e4d731ee26' +
'83680674365cd191d562bae753b84aa5'],
[ptn(17 ** 4), 64,
'b06275d284cd1cf205bcbe57dccd3ec1' +
'ff6686e3ed15776383e1f2fa3c6ac8f0' +
'8bf8a162829db1a44b2a43ff83dd89c3' +
'cf1ceb61ede659766d5ccf817a62ba8d'],
[ptn(17 ** 5), 64,
'9473831d76a4c7bf77ace45b59f1458b' +
'1673d64bcd877a7c66b2664aa6dd149e' +
'60eab71b5c2bab858c074ded81ddce2b' +
'4022b5215935c0d4d19bf511aeeb0772'],
[ptn(17 ** 6), 64,
'0652b740d78c5e1f7c8dcc1777097382' +
'768b7ff38f9a7a20f29f413bb1b3045b' +
'31a5578f568f911e09cf44746da84224' +
'a5266e96a4a535e871324e4f9c7004da'],
[new Uint8Array(0), 64,
'9280f5cc39b54a5a594ec63de0bb9937' +
'1e4609d44bf845c2f5b8c316d72b1598' +
'11f748f23e3fabbe5c3226ec96c62186' +
'df2d33e9df74c5069ceecbb4dd10eff6', ptn(1)],
[Buffer.from('ff', 'hex'), 64,
'47ef96dd616f200937aa7847e34ec2fe' +
'ae8087e3761dc0f8c1a154f51dc9ccf8' +
'45d7adbce57ff64b639722c6a1672e3b' +
'f5372d87e00aff89be97240756998853', ptn(41)],
[Buffer.from('ffffff', 'hex'), 64,
'3b48667a5051c5966c53c5d42b95de45' +
'1e05584e7806e2fb765eda959074172c' +
'b438a9e91dde337c98e9c41bed94c4e0' +
'aef431d0b64ef2324f7932caa6f54969', ptn(41 ** 2)],
[Buffer.from('ffffffffffffff', 'hex'), 64,
'e0911cc00025e1540831e266d94add9b' +
'98712142b80d2629e643aac4efaf5a3a' +
'30a88cbf4ac2a91a2432743054fbcc98' +
'97670e86ba8cec2fc2ace9c966369724', ptn(41 ** 3)],
[ptn(8191), 64,
'3081434d93a4108d8d8a3305b89682ce' +
'bedc7ca4ea8a3ce869fbb73cbe4a58ee' +
'f6f24de38ffc170514c70e7ab2d01f03' +
'812616e863d769afb3753193ba045b20'],
[ptn(8192), 64,
'c6ee8e2ad3200c018ac87aaa031cdac2' +
'2121b412d07dc6e0dccbb53423747e9a' +
'1c18834d99df596cf0cf4b8dfafb7bf0' +
'2d139d0c9035725adc1a01b7230a41fa'],
[ptn(8192), 64,
'74e47879f10a9c5d11bd2da7e194fe57' +
'e86378bf3c3f7448eff3c576a0f18c5c' +
'aae0999979512090a7f348af4260d4de' +
'3c37f1ecaf8d2c2c96c1d16c64b12496', ptn(8189)],
[ptn(8192), 64,
'f4b5908b929ffe01e0f79ec2f21243d4' +
'1a396b2e7303a6af1d6399cd6c7a0a2d' +
'd7c4f607e8277f9c9b1cb4ab9ddc59d4' +
'b92d1fc7558441f1832c3279a4241b8b', ptn(8190)],
];
async function checkDigest(name, vectors) {
const isKT = name.startsWith('KT');
for (const [input, outputLength, expected, ...rest] of vectors) {
const algorithm = { name, outputLength: outputLength * 8 };
if (rest.length) {
if (isKT)
algorithm.customization = rest[0];
else
algorithm.domainSeparation = rest[0];
}
const result = await subtle.digest(algorithm, input);
assert.deepStrictEqual(
Buffer.from(result).toString('hex'),
expected,
);
}
}
(async () => {
await checkDigest('TurboSHAKE128', turboSHAKE128Vectors);
// TurboSHAKE128(M=00^0, D=1F, 10032), last 32 bytes
{
const result = await subtle.digest({
name: 'TurboSHAKE128',
outputLength: 10032 * 8,
}, new Uint8Array(0));
assert.deepStrictEqual(
Buffer.from(result).subarray(-32).toString('hex'),
'a3b9b0385900ce761f22aed548e754da' +
'10a5242d62e8c658e3f3a923a7555607',
);
}
await checkDigest('TurboSHAKE256', turboSHAKE256Vectors);
// TurboSHAKE256(M=00^0, D=1F, 10032), last 32 bytes
{
const result = await subtle.digest({
name: 'TurboSHAKE256',
outputLength: 10032 * 8,
}, new Uint8Array(0));
assert.deepStrictEqual(
Buffer.from(result).subarray(-32).toString('hex'),
'abefa11630c661269249742685ec082f' +
'207265dccf2f43534e9c61ba0c9d1d75',
);
}
await checkDigest('KT128', kt128Vectors);
// KT128(M=00^0, C=00^0, 10032), last 32 bytes
{
const result = await subtle.digest({
name: 'KT128',
outputLength: 10032 * 8,
}, new Uint8Array(0));
assert.deepStrictEqual(
Buffer.from(result).subarray(-32).toString('hex'),
'e8dc563642f7228c84684c898405d3a8' +
'34799158c079b12880277a1d28e2ff6d',
);
}
await checkDigest('KT256', kt256Vectors);
// KT256(M=00^0, C=00^0, 10064), last 64 bytes
{
const result = await subtle.digest({
name: 'KT256',
outputLength: 10064 * 8,
}, new Uint8Array(0));
assert.deepStrictEqual(
Buffer.from(result).subarray(-64).toString('hex'),
'ad4a1d718cf950506709a4c33396139b' +
'4449041fc79a05d68da35f1e453522e0' +
'56c64fe94958e7085f2964888259b993' +
'2752f3ccd855288efee5fcbb8b563069',
);
}
})().then(common.mustCall());
@@ -0,0 +1,181 @@
'use strict';
const common = require('../common');
if (!common.hasCrypto)
common.skip('missing crypto');
const assert = require('assert');
const { subtle } = globalThis.crypto;
const kSourceData = {
empty: '',
short: '156eea7cc14c56cb94db030a4a9d95ff',
medium: 'b6c8f9df648cd088b70f38e74197b18cb81e1e435' +
'0d50bccb8fb5a7379c87bb2e3d6ed5461ed1e9f36' +
'f340a3962a446b815b794b4bd43a4403502077b22' +
'56cc807837f3aacd118eb4b9c2baeb897068625ab' +
'aca193',
long: null
};
kSourceData.long = kSourceData.medium.repeat(1024);
// Test vectors generated with PyCryptodome as a reference implementation
const kDigestedData = {
'turboshake128': {
empty: '1e415f1c5983aff2169217277d17bb538cd945a397ddec541f1ce41af2c1b74c',
short: 'f8d1ebf3b48b71b0514686090eb25f1de322a00149be9b4dc5f09ac9077cd8a8',
medium: '0d0e7eceb4ae58c3c48f6c2bad56d0f8ff3f887468d3ea55a138aedf395233c0',
long: '5747c06f02ffd9d6c911b6453cc8b717083ab6417319a6ec5c3bb39ed0baf331',
},
'turboshake256': {
empty: '367a329dafea871c7802ec67f905ae13c57695dc2c6663c61035f59a18f8e7db' +
'11edc0e12e91ea60eb6b32df06dd7f002fbafabb6e13ec1cc20d995547600db0',
short: 'b47aa0a5b76caf9b10cfaeff036df0cdb86362d2bd036a2fee0cd0d74e79279c' +
'b9c57a70da1e3dd9e126a469857ba4c82b0efb3ae06d1a3781a6f102c3eb3a1d',
medium: '7fa19fd828762d2dba6eea8407d1fb04302b5a4f1ca3d00b3672c1e3b3331d18' +
'925b7ec380f3f04673a164dab04d2a0c5c12818046284c38d286645741a8aa3e',
long: '12d0b90c08f588710733cc07f0a2d6ab0795a4a24904c111062226fcd9d5dcb2' +
'1d6b5b848c9aebbcab221f031e9b4ea71e099ec785e822b1b83e73d0750ca1a7',
},
'kt128': {
empty: '1ac2d450fc3b4205d19da7bfca1b37513c0803577ac7167f06fe2ce1f0ef39e5',
short: '4719a2ac1dc1c592521cf201df3f476ea496fe461abe9a2604527f6bec047579',
medium: '00f3add71679681720b925416953897ac62cfae97060dd5f2e1641a076580cc9',
long: 'c05805c2736deb4be3fca6e3717b9af0aa18ceeaaeeab66b328a3ffebf0a814d',
},
'kt256': {
empty: 'b23d2e9cea9f4904e02bec06817fc10ce38ce8e93ef4c89e6537076af8646404' +
'e3e8b68107b8833a5d30490aa33482353fd4adc7148ecb782855003aaebde4a9',
short: '6709e5e312f2dee4547ecb0ab7d42728ba57985983731afbd6c2a0676c522274' +
'cf9153064ee07982129d3f58d4dbe00050eb28b392559bdb020aca302b7a28cb',
medium: '9078b6ff78e9c4b3c8ff49e5b9f337b36cc6d6749d23985035886d993db69f7e' +
'05fea97125e0889130da09fc5837761f7793e3e44d85be1ee1f6af7f4a1f50cb',
long: '41f83b7c7d02fc6d98f1fa1474d765caff4673f90cd7204894d7da72d97403b6' +
'2fe5c4bae2bf0ce3dcd51e80c98bd25ce5fe54040259d9466b67f1517dac0712',
},
};
function buildAlg(name) {
const lower = name.toLowerCase();
if (lower.startsWith('turboshake')) {
const outputLength = lower === 'turboshake128' ? 256 : 512;
return { name, outputLength };
}
if (lower.startsWith('kt')) {
const outputLength = lower === 'kt128' ? 256 : 512;
return { name, outputLength };
}
return name;
}
async function testDigest(size, alg) {
const digest = await subtle.digest(
alg,
Buffer.from(kSourceData[size], 'hex'));
assert.strictEqual(
Buffer.from(digest).toString('hex'),
kDigestedData[(alg.name || alg).toLowerCase()][size]);
}
// Known-answer tests
(async function() {
const variations = [];
Object.keys(kSourceData).forEach((size) => {
Object.keys(kDigestedData).forEach((alg) => {
const upCase = alg.toUpperCase();
const downCase = alg.toLowerCase();
const mixedCase = upCase.slice(0, 1) + downCase.slice(1);
variations.push(testDigest(size, buildAlg(upCase)));
variations.push(testDigest(size, buildAlg(downCase)));
variations.push(testDigest(size, buildAlg(mixedCase)));
});
});
await Promise.all(variations);
})().then(common.mustCall());
// Edge cases: zero-length output rejects
(async () => {
await assert.rejects(
subtle.digest({ name: 'TurboSHAKE128', outputLength: 0 }, Buffer.alloc(1)),
{
name: 'OperationError',
message: 'Invalid TurboShakeParams outputLength',
});
await assert.rejects(
subtle.digest({ name: 'KT128', outputLength: 0 }, Buffer.alloc(1)),
{
name: 'OperationError',
message: 'Invalid KangarooTwelveParams outputLength',
});
})().then(common.mustCall());
// Edge case: non-byte-aligned outputLength rejects
(async () => {
await assert.rejects(
subtle.digest({ name: 'TurboSHAKE128', outputLength: 7 }, Buffer.alloc(1)),
{
name: 'OperationError',
message: 'Invalid TurboShakeParams outputLength',
});
await assert.rejects(
subtle.digest({ name: 'KT128', outputLength: 7 }, Buffer.alloc(1)),
{
name: 'OperationError',
message: 'Invalid KangarooTwelveParams outputLength',
});
})().then(common.mustCall());
// TurboSHAKE domain separation byte
(async () => {
// Domain separation 0x07 should produce different output than default 0x1F
const [d07, d1f] = await Promise.all([
subtle.digest(
{ name: 'TurboSHAKE128', outputLength: 256, domainSeparation: 0x07 },
Buffer.alloc(0)),
subtle.digest(
{ name: 'TurboSHAKE128', outputLength: 256 },
Buffer.alloc(0)),
]);
assert.notDeepStrictEqual(
new Uint8Array(d07),
new Uint8Array(d1f));
// Verify D=0x07 against known vector
assert.strictEqual(
Buffer.from(d07).toString('hex'),
'5a223ad30b3b8c66a243048cfced430f54e7529287d15150b973133adfac6a2f');
})().then(common.mustCall());
// KT128 with customization string
(async () => {
const digest = await subtle.digest(
{ name: 'KT128', outputLength: 256, customization: Buffer.from('test') },
Buffer.from('hello'));
assert(digest instanceof ArrayBuffer);
assert.strictEqual(digest.byteLength, 32);
})().then(common.mustCall());
// TurboSHAKE domain separation out of range
(async () => {
await assert.rejects(
subtle.digest(
{ name: 'TurboSHAKE128', outputLength: 256, domainSeparation: 0x00 },
Buffer.alloc(0)),
{
name: 'OperationError',
});
await assert.rejects(
subtle.digest(
{ name: 'TurboSHAKE128', outputLength: 256, domainSeparation: 0x80 },
Buffer.alloc(0)),
{
name: 'OperationError',
});
})().then(common.mustCall());
-6
View File
@@ -55,12 +55,6 @@ module.exports = {
'historical.any.js': {
'skip': 'Not relevant in Node.js context',
},
'digest/turboshake.tentative.https.any.js': {
'skip': 'not implemented',
},
'digest/kangarootwelve.tentative.https.any.js': {
'skip': 'not implemented',
},
'sign_verify/eddsa_small_order_points.https.any.js': {
'fail': {
'note': 'see https://github.com/nodejs/node/issues/54572',