Add key interface with test vectors.

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cheatfate 2019-03-02 21:19:41 +02:00
parent 14686714c0
commit b235c84bb2
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GPG Key ID: 46ADD633A7201F95
4 changed files with 893 additions and 4 deletions

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@ -22,4 +22,5 @@ task test, "Runs the test suite":
exec "nim c -r tests/testecnist" exec "nim c -r tests/testecnist"
exec "nim c -r tests/testrsa" exec "nim c -r tests/testrsa"
exec "nim c -r tests/tested25519" exec "nim c -r tests/tested25519"
exec "nim c -r tests/testcrypto"
exec "nim c -r tests/testdaemon" exec "nim c -r tests/testdaemon"

487
libp2p/crypto/crypto.nim Normal file
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@ -0,0 +1,487 @@
## Nim-Libp2p
## Copyright (c) 2018 Status Research & Development GmbH
## Licensed under either of
## * Apache License, version 2.0, ([LICENSE-APACHE](LICENSE-APACHE))
## * MIT license ([LICENSE-MIT](LICENSE-MIT))
## at your option.
## This file may not be copied, modified, or distributed except according to
## those terms.
## This module implements Public Key and Private Key interface for libp2p.
import rsa, ecnist
import ed25519/ed25519
import ../protobuf/minprotobuf
import nimcrypto/[rijndael, blowfish, sha, sha2, hash, hmac, utils]
type
PKScheme* = enum
RSA = 0,
Ed25519,
Secp256k1,
ECDSA,
NoSupport
CipherScheme* = enum
Aes128 = 0,
Aes256,
Blowfish
DigestSheme* = enum
Sha1,
Sha256,
Sha512
ECDHEScheme* = EcCurveKind
PublicKey* = object
case scheme*: PKScheme
of RSA:
rsakey*: RsaPublicKey
of Ed25519:
edkey*: EdPublicKey
of Secp256k1:
discard
of ECDSA:
eckey*: EcPublicKey
of NoSupport:
discard
PrivateKey* = object
case scheme*: PKScheme
of RSA:
rsakey*: RsaPrivateKey
of Ed25519:
edkey*: EdPrivateKey
of Secp256k1:
discard
of ECDSA:
eckey*: EcPrivateKey
of NoSupport:
discard
KeyPair* = object
seckey*: PrivateKey
pubkey*: PublicKey
Secret* = object
ivsize*: int
keysize*: int
macsize*: int
data*: seq[byte]
P2pKeyError* = object of Exception
const
SupportedSchemes* = {RSA, Ed25519, ECDSA}
SupportedSchemesInt* = {int8(RSA), int8(Ed25519), int8(ECDSA)}
proc random*(t: typedesc[PrivateKey], scheme: PKScheme,
bits = DefaultKeySize): PrivateKey =
## Generate random private key for scheme ``scheme``.
##
## ``bits`` is number of bits for RSA key, ``bits`` value must be in
## [512, 4096], default value is 2048 bits.
assert(scheme in SupportedSchemes)
result = PrivateKey(scheme: scheme)
if scheme == RSA:
result.rsakey = RsaPrivateKey.random(bits)
elif scheme == Ed25519:
result.edkey = EdPrivateKey.random()
elif scheme == ECDSA:
result.eckey = EcPrivateKey.random(Secp256r1)
proc random*(t: typedesc[KeyPair], scheme: PKScheme,
bits = DefaultKeySize): KeyPair =
## Generate random key pair for scheme ``scheme``.
##
## ``bits`` is number of bits for RSA key, ``bits`` value must be in
## [512, 4096], default value is 2048 bits.
assert(scheme in SupportedSchemes)
result.seckey = PrivateKey(scheme: scheme)
result.pubkey = PublicKey(scheme: scheme)
if scheme == RSA:
var pair = RsaKeyPair.random(bits)
result.seckey.rsakey = pair.seckey
result.pubkey.rsakey = pair.pubkey
elif scheme == Ed25519:
var pair = EdKeyPair.random()
result.seckey.edkey = pair.seckey
result.pubkey.edkey = pair.pubkey
elif scheme == ECDSA:
var pair = EcKeyPair.random(Secp256r1)
result.seckey.eckey = pair.seckey
result.pubkey.eckey = pair.pubkey
proc getKey*(key: PrivateKey): PublicKey =
## Get public key from corresponding private key ``key``.
result = PublicKey(scheme: key.scheme)
if key.scheme == RSA:
result.rsakey = key.rsakey.getKey()
elif key.scheme == Ed25519:
result.edkey = key.edkey.getKey()
elif key.scheme == ECDSA:
result.eckey = key.eckey.getKey()
proc toRawBytes*(key: PrivateKey, data: var openarray[byte]): int =
## Serialize private key ``key`` (using scheme's own serialization) and store
## it to ``data``.
##
## Returns number of bytes (octets) needed to store private key ``key``.
if key.scheme == RSA:
result = key.rsakey.toBytes(data)
elif key.scheme == Ed25519:
result = key.edkey.toBytes(data)
elif key.scheme == ECDSA:
result = key.eckey.toBytes(data)
proc toRawBytes*(key: PublicKey, data: var openarray[byte]): int =
## Serialize public key ``key`` (using scheme's own serialization) and store
## it to ``data``.
##
## Returns number of bytes (octets) needed to store public key ``key``.
if key.scheme == RSA:
result = key.rsakey.toBytes(data)
elif key.scheme == Ed25519:
result = key.edkey.toBytes(data)
elif key.scheme == ECDSA:
result = key.eckey.toBytes(data)
proc getRawBytes*(key: PrivateKey): seq[byte] =
## Return private key ``key`` in binary form (using scheme's own
## serialization).
if key.scheme == RSA:
result = key.rsakey.getBytes()
elif key.scheme == Ed25519:
result = key.edkey.getBytes()
elif key.scheme == ECDSA:
result = key.eckey.getBytes()
proc getRawBytes*(key: PublicKey): seq[byte] =
## Return public key ``key`` in binary form (using scheme's own
## serialization).
if key.scheme == RSA:
result = key.rsakey.getBytes()
elif key.scheme == Ed25519:
result = key.edkey.getBytes()
elif key.scheme == ECDSA:
result = key.eckey.getBytes()
proc toBytes*(key: PrivateKey, data: var openarray[byte]): int =
## Serialize private key ``key`` (using libp2p protobuf scheme) and store
## it to ``data``.
##
## Returns number of bytes (octets) needed to store private key ``key``.
var msg = initProtoBuffer()
msg.write(initProtoField(1, cast[uint64](key.scheme)))
msg.write(initProtoField(2, key.getRawBytes()))
msg.finish()
result = len(msg.buffer)
if len(data) >= result:
copyMem(addr data[0], addr msg.buffer[0], len(msg.buffer))
proc toBytes*(key: PublicKey, data: var openarray[byte]): int =
## Serialize public key ``key`` (using libp2p protobuf scheme) and store
## it to ``data``.
##
## Returns number of bytes (octets) needed to store public key ``key``.
var msg = initProtoBuffer()
msg.write(initProtoField(1, cast[uint64](key.scheme)))
msg.write(initProtoField(2, key.getRawBytes()))
msg.finish()
result = len(msg.buffer)
if len(data) >= result:
copyMem(addr data[0], addr msg.buffer[0], len(msg.buffer))
proc getBytes*(key: PrivateKey): seq[byte] =
## Return private key ``key`` in binary form (using libp2p's protobuf
## serialization).
var msg = initProtoBuffer()
msg.write(initProtoField(1, cast[uint64](key.scheme)))
msg.write(initProtoField(2, key.getRawBytes()))
msg.finish()
result = msg.buffer
proc getBytes*(key: PublicKey): seq[byte] =
## Return public key ``key`` in binary form (using libp2p's protobuf
## serialization).
var msg = initProtoBuffer()
msg.write(initProtoField(1, cast[uint64](key.scheme)))
msg.write(initProtoField(2, key.getRawBytes()))
msg.finish()
result = msg.buffer
proc init*(key: var PrivateKey, data: openarray[byte]): bool =
## Initialize private key ``key`` from libp2p's protobuf serialized raw
## binary form.
##
## Returns ``true`` on success.
var id: uint64
var buffer: seq[byte]
if len(data) > 0:
var pb = initProtoBuffer(@data)
if pb.getVarintValue(1, id) != 0:
if pb.getBytes(2, buffer) != 0:
if cast[int8](id) in SupportedSchemesInt:
var scheme = cast[PKScheme](cast[int8](id))
var nkey = PrivateKey(scheme: scheme)
if scheme == RSA:
if init(nkey.rsakey, buffer) == Asn1Status.Success:
key = nkey
result = true
elif scheme == Ed25519:
if init(nkey.edkey, buffer):
key = nkey
result = true
elif scheme == ECDSA:
if init(nkey.eckey, buffer) == Asn1Status.Success:
key = nkey
result = true
proc init*(key: var PublicKey, data: openarray[byte]): bool =
## Initialize public key ``key`` from libp2p's protobuf serialized raw
## binary form.
##
## Returns ``true`` on success.
var id: uint64
var buffer: seq[byte]
if len(data) > 0:
var pb = initProtoBuffer(@data)
if pb.getVarintValue(1, id) != 0:
if pb.getBytes(2, buffer) != 0:
if cast[int8](id) in SupportedSchemesInt:
var scheme = cast[PKScheme](cast[int8](id))
var nkey = PublicKey(scheme: scheme)
if scheme == RSA:
if init(nkey.rsakey, buffer) == Asn1Status.Success:
key = nkey
result = true
elif scheme == Ed25519:
if init(nkey.edkey, buffer):
key = nkey
result = true
elif scheme == ECDSA:
if init(nkey.eckey, buffer) == Asn1Status.Success:
key = nkey
result = true
proc init*(key: var PrivateKey, data: string): bool =
## Initialize private key ``key`` from libp2p's protobuf serialized
## hexadecimal string representation.
##
## Returns ``true`` on success.
result = key.init(fromHex(data))
proc init*(key: var PublicKey, data: string): bool =
## Initialize public key ``key`` from libp2p's protobuf serialized
## hexadecimal string representation.
##
## Returns ``true`` on success.
result = key.init(fromHex(data))
proc init*(t: typedesc[PrivateKey], data: openarray[byte]): PrivateKey =
## Create new private key from libp2p's protobuf serialized binary form.
if not result.init(data):
raise newException(P2pKeyError, "Incorrect binary form")
proc init*(t: typedesc[PublicKey], data: openarray[byte]): PublicKey =
## Create new public key from libp2p's protobuf serialized binary form.
if not result.init(data):
raise newException(P2pKeyError, "Incorrect binary form")
proc init*(t: typedesc[PrivateKey], data: string): PrivateKey =
## Create new private key from libp2p's protobuf serialized hexadecimal string
## form.
result = t.init(fromHex(data))
proc init*(t: typedesc[PublicKey], data: string): PublicKey =
## Create new public key from libp2p's protobuf serialized hexadecimal string
## form.
result = t.init(fromHex(data))
proc `==`*(key1, key2: PublicKey): bool =
## Return ``true`` if two public keys ``key1`` and ``key2`` of the same
## scheme and equal.
if key1.scheme == key2.scheme:
if key1.scheme == RSA:
result = (key1.rsakey == key2.rsakey)
elif key1.scheme == Ed25519:
result = (key1.edkey == key2.edkey)
elif key1.scheme == ECDSA:
result = (key1.eckey == key2.eckey)
proc `==`*(key1, key2: PrivateKey): bool =
## Return ``true`` if two private keys ``key1`` and ``key2`` of the same
## scheme and equal.
if key1.scheme == key2.scheme:
if key1.scheme == RSA:
result = (key1.rsakey == key2.rsakey)
elif key1.scheme == Ed25519:
result = (key1.edkey == key2.edkey)
elif key1.scheme == ECDSA:
result = (key1.eckey == key2.eckey)
proc `$`*(key: PrivateKey): string =
## Get string representation of private key ``key``.
if key.scheme == RSA:
result = $(key.rsakey)
elif key.scheme == Ed25519:
result = "Ed25519 key ("
result.add($(key.edkey))
result.add(")")
elif key.scheme == ECDSA:
result = "Secp256r1 key ("
result.add($(key.eckey))
result.add(")")
proc `$`*(key: PublicKey): string =
## Get string representation of public key ``key``.
if key.scheme == RSA:
result = $(key.rsakey)
elif key.scheme == Ed25519:
result = "Ed25519 key ("
result.add($(key.edkey))
result.add(")")
elif key.scheme == ECDSA:
result = "Secp256r1 key ("
result.add($(key.eckey))
result.add(")")
proc sign*(key: PrivateKey, data: openarray[byte]): seq[byte] =
## Sign message ``data`` using private key ``key`` and return generated
## signature in raw binary form.
if key.scheme == RSA:
var sig = key.rsakey.sign(data)
result = sig.getBytes()
elif key.scheme == Ed25519:
var sig = key.edkey.sign(data)
result = sig.getBytes()
elif key.scheme == ECDSA:
var sig = key.eckey.sign(data)
result = sig.getBytes()
proc verify*(sig: openarray[byte], message: openarray[byte],
key: PublicKey): bool =
## Verify signature ``sig`` using message ``message`` and public key ``key``.
## Return ``true`` if message signature is valid.
if key.scheme == RSA:
var signature: RsaSignature
if signature.init(sig) == Asn1Status.Success:
result = signature.verify(message, key.rsakey)
elif key.scheme == Ed25519:
var signature: EdSignature
if signature.init(sig):
result = signature.verify(message, key.edkey)
elif key.scheme == ECDSA:
var signature: EcSignature
if signature.init(sig) == Asn1Status.Success:
result = signature.verify(message, key.eckey)
template makeSecret(buffer, hmactype, secret, seed) =
var ctx: hmactype
var j = 0
# We need to strip leading zeros, because Go bigint serialization do it.
var offset = 0
for i in 0..<len(secret):
if secret[i] != 0x00'u8:
break
inc(offset)
ctx.init(secret.toOpenArray(offset, len(secret) - 1))
ctx.update(seed)
var a = ctx.finish()
while j < len(buffer):
ctx.init(secret.toOpenArray(offset, len(secret) - 1))
ctx.update(a.data)
ctx.update(seed)
var b = ctx.finish()
var todo = len(b.data)
if j + todo > len(buffer):
todo = len(buffer) - j
copyMem(addr buffer[j], addr b.data[0], todo)
j += todo
ctx.init(secret.toOpenArray(offset, len(secret) - 1))
ctx.update(a.data)
a = ctx.finish()
proc stretchKeys*(cipherScheme: CipherScheme, hashScheme: DigestSheme,
secret: openarray[byte]): Secret =
## Expand shared secret to cryptographic keys.
if cipherScheme == Aes128:
result.ivsize = aes128.sizeBlock
result.keysize = aes128.sizeKey
elif cipherScheme == Aes256:
result.ivsize = aes256.sizeBlock
result.keysize = aes256.sizeKey
elif cipherScheme == Blowfish:
result.ivsize = 8
result.keysize = 32
var seed = "key expansion"
result.macsize = 20
let length = result.ivsize + result.keysize + result.macsize
result.data = newSeq[byte](2 * length)
if hashScheme == Sha256:
makeSecret(result.data, HMAC[sha256], secret, seed)
elif hashScheme == Sha512:
makeSecret(result.data, HMAC[sha512], secret, seed)
elif hashScheme == Sha1:
makeSecret(result.data, HMAC[sha1], secret, seed)
template goffset*(secret, id, o: untyped): untyped =
id * (len(secret.data) shr 1) + o
template ivOpenArray*(secret: Secret, id: int): untyped =
toOpenArray(secret.data, goffset(secret, id, 0),
goffset(secret, id, secret.ivsize - 1))
template keyOpenArray*(secret: Secret, id: int): untyped =
toOpenArray(secret.data, goffset(secret, id, secret.ivsize),
goffset(secret, id, secret.ivsize + secret.keysize - 1))
template macOpenArray*(secret: Secret, id: int): untyped =
toOpenArray(secret.data, goffset(secret, id, secret.ivsize + secret.keysize),
goffset(secret, id, secret.ivsize + secret.keysize + secret.macsize - 1))
proc iv*(secret: Secret, id: int): seq[byte] {.inline.} =
## Get array of bytes with with initial vector.
result = newSeq[byte](secret.ivsize)
var offset = if id == 0: 0 else: (len(secret.data) div 2)
copyMem(addr result[0], unsafeAddr secret.data[offset], secret.ivsize)
proc key*(secret: Secret, id: int): seq[byte] {.inline.} =
result = newSeq[byte](secret.keysize)
var offset = if id == 0: 0 else: (len(secret.data) div 2)
offset += secret.ivsize
copyMem(addr result[0], unsafeAddr secret.data[offset], secret.keysize)
proc mac*(secret: Secret, id: int): seq[byte] {.inline.} =
result = newSeq[byte](secret.macsize)
var offset = if id == 0: 0 else: (len(secret.data) div 2)
offset += secret.ivsize + secret.keysize
copyMem(addr result[0], unsafeAddr secret.data[offset], secret.macsize)
proc ephemeral*(scheme: ECDHEScheme): KeyPair =
## Generate ephemeral keys used to perform ECDHE.
var keypair: EcKeyPair
if scheme == Secp256r1:
keypair = EcKeyPair.random(Secp256r1)
elif scheme == Secp384r1:
keypair = EcKeyPair.random(Secp384r1)
elif scheme == Secp521r1:
keypair = EcKeyPair.random(Secp521r1)
result.seckey = PrivateKey(scheme: ECDSA)
result.pubkey = PublicKey(scheme: ECDSA)
result.seckey.eckey = keypair.seckey
result.pubkey.eckey = keypair.pubkey
proc makeSecret*(remoteEPublic: PublicKey, localEPrivate: PrivateKey,
data: var openarray[byte]): int =
## Calculate shared secret using remote ephemeral public key
## ``remoteEPublic`` and local ephemeral private key ``localEPrivate`` and
## store shared secret to ``data``
##
## Returns number of bytes (octets) used to store shared secret data, or
## ``0`` on error.
if remoteEPublic.scheme == ECDSA:
if localEPrivate.scheme == remoteEPublic.scheme:
result = toSecret(remoteEPublic.eckey, localEPrivate.eckey, data)

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@ -29,6 +29,9 @@ const
Sig256Length* = 64 Sig256Length* = 64
Sig384Length* = 96 Sig384Length* = 96
Sig521Length* = 132 Sig521Length* = 132
Secret256Length* = SecKey256Length
Secret384Length* = SecKey384Length
Secret521Length* = SecKey521Length
type type
EcPrivateKey* = ref object EcPrivateKey* = ref object
@ -727,11 +730,11 @@ proc toSecret*(pubkey: EcPublicKey, seckey: EcPrivateKey,
var length = 0 var length = 0
if not isNil(mult): if not isNil(mult):
if seckey.key.curve == BR_EC_SECP256R1: if seckey.key.curve == BR_EC_SECP256R1:
result = 32 result = Secret256Length
elif seckey.key.curve == BR_EC_SECP384R1: elif seckey.key.curve == BR_EC_SECP384R1:
result = 48 result = Secret384Length
elif seckey.key.curve == BR_EC_SECP521R1: elif seckey.key.curve == BR_EC_SECP521R1:
result = 66 result = Secret521Length
if len(data) >= result: if len(data) >= result:
var qplus1 = cast[pointer](cast[uint](mult.key.q) + 1'u) var qplus1 = cast[pointer](cast[uint](mult.key.q) + 1'u)
copyMem(addr data[0], qplus1, result) copyMem(addr data[0], qplus1, result)
@ -742,7 +745,7 @@ proc getSecret*(pubkey: EcPublicKey, seckey: EcPrivateKey): seq[byte] =
## shared secret. ## shared secret.
## ##
## If error happens length of result array will be ``0``. ## If error happens length of result array will be ``0``.
var data: array[66, byte] var data: array[Secret521Length, byte]
let res = toSecret(pubkey, seckey, data) let res = toSecret(pubkey, seckey, data)
if res > 0: if res > 0:
result = newSeq[byte](res) result = newSeq[byte](res)

398
tests/testcrypto.nim Normal file
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@ -0,0 +1,398 @@
## Nim-Libp2p
## Copyright (c) 2018 Status Research & Development GmbH
## Licensed under either of
## * Apache License, version 2.0, ([LICENSE-APACHE](LICENSE-APACHE))
## * MIT license ([LICENSE-MIT](LICENSE-MIT))
## at your option.
## This file may not be copied, modified, or distributed except according to
## those terms.
## Test vectors was made using Go implementation
## https://github.com/libp2p/go-libp2p-crypto/blob/master/key.go
import unittest
import nimcrypto/utils
import ../libp2p/crypto/crypto
const
PrivateKeys = [
"""080012BE023082013A020100024100AD8A7D5B0EB7C852C1464E4567651F412C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""",
"""080012E0043082025C02010002818100B91DCD5578C2FA3EA7D1DF62F59DEEDA
834ECE568844554163E1803CDF4C2988BE182B8F957D3405BC745A33DA1E714A
BA13C316683767735ED72AE8B35648FD6E33A49D696FADB6499C63A09204F0BF
77B44D3917DC746FB7B52040725746A3140E96E8682A02A4767C280DEFBE58C6
ACB6DD1EE63F3F589F4C7941B27957F70203010001028180364CDFA66ABE06D9
CA306DEE814DCA7A9E79C75CEAABE0B645AE2807B3188C36684C7EBAA7870A73
844C3D0968B9F5518E33ADCE2CD3D3ACABED41D0F08A26EE705E4277AF0D5816
491C626F6D2D5396A741B83D0730401B061A8C2DE19E18B07CE8798F387D4C79
78C92DA6F4080A45F93D0ADE50CF7E139DB7288EBA72D341024100DE9B394C60
6C396B65756CE4A2E3D77F66C3AFBDA0C09C3CD87EB60A35018BDA7D82FF119F
F6EBAAEC868E8ED1AD215C9EBF4073F26A1B187CDAFC862540B1C3024100D4E2
D92E126D92B6795EBD7991A2D8A35147FAB73CFA4BBE74644CE8D1AEDE10A2FF
33CEDF0B4961A89B1121C58D233309589BFBDE72D374ECB6A6859B0CC9BD0241
008B0ABB9C6831D11FB2CCC8CA7AB003BF9109B3B0A7430793BDCA4F9C4A857F
BC665F3740E400D02CFFF5FFFF571A63D73D54CA4661E942A965FB4675E7B8E4
0F02404A175D90DC57085DBBA60E79B6072030CF04272D08EAEFDBAC349053E3
4E61F916518D9D6D21477BD6AB896DE08C7B78B2C3051EC6CFDDEA6ECC2EEE87
050F5D02407BC18B68F253353D7DB89AA85A7CEC4069DAEB894828F83931ADC4
9A3255DFD0C9AAF9D09EBFAE831588A360EB0EEB89E45C9D136DCEEC8EAEBD3E
65FBA9EE01""",
"""080012A809308204A40201000282010100C8B014EC01E135D635F7E246BA7D42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""",
"""080012AD12308209290201000282020100E35735127777C52E66252B014E9650
01F3A515317B90DDAC8671F4F820AE67308DE2AA4162E99522CD6DA7EB9D7DB6
06489FEB77341A8FA058FAC832EE6EE5E978D512FF79461FC419A23B27C39C81
BB635228B0DA5CFAE87080AC1AAE4619BF4576771E6E24A04D98D55ADA5CBA55
8EBE06ED14790D71438AFDC1FB9B4E2E623F221F8509A8CFE37265728EFBFAA6
0C76E6FBC4A473511CE6EE8A72C1CE1E5D67AB9FC4FA6FE797B854DFE7064C23
5ECB1379DB4B1E085F0042E19831D80CBE160A46C5154148A8D20E15C29F12AE
208022EF094C5AC565153268DE8318CAFC82D2D71839EA136756FD4EBC3951F2
60EE5DA51A63D9AC7B80B7968D769CC82DCE2494BAFE9505C124E947E0E8D3F4
A6B207EE195B3FFBFED028DCE59DB5CD60B1C6C316B4A712DAC2E8BF46E00611
6685BB77D56E00B2A63B74CFA5C7CAD003BD2DA9F865239DAB45FE52DAB9C792
8A705F3A0A3DCEC0B45A73DCE0A63DA1E24417ECD9C4B51342600CD2963BBA4F
A3DF170666B9804E1BCC9E7CF171571CB336F383B5A0FA375F7A7F72CC4F4460
B8255F4F38556C360D712910B34A8ACE1C270175DFF5CECC7A34681835915BCE
5FD4CA52D0F5A57685E28F5DCA1CA5A4410FDEAF516FC4F8226BCE2CFDBA9F83
0DD9A0903A18E009BBE818D52D11AD85974021CE0CC908DEC21FD6163EC7FD55
8150506FAE4FE6393EA3CC061EC9749DFD020301000102820200535C63E28C9A
075C9729E3D60BDA0426630FD2709D8DA62B1FF5634D24B6AEB1D8251826F7BD
0CE98108477D96F744AA9330C8A7A21C6733F5CCA7623D99BE8658BF50C30AD6
12C9D6586D768C3CB4396116FC42B51F4905B85306489644B02639B351C47FC0
C06313BA9020E7C58F9FD2C03968BB66997499DFA8A4B8F2F701218342A986BC
36D680D90023BBF3D1B55A5822539DB58735A0DC313A19249A6FC796DFF3DB9C
F2FFE8207F257862ACC9928F66AC69A3EE8FDF49A6ED26C1C11266848824B641
85021A5BFDD0AA81B005CCD6826E1768655F466180A0AED3858307F985D3A550
D6A29AFC3145C582EDEC6B1B3D722AD0E37539E297BAF19655B3FD0DCBBF06DF
65135B59D6FD56F2587523B231C7736A39D1C73967E56EF9E1D093DE6136F74A
CFABE1B0917F0C67724EA16FC7BD0CF57FF5AED3941AE5DA068A48B3F5726A56
223DAF96A24F0D4D22E2CE81B189D0A75A52ECFA50AEE24149E8285E2FD0892E
0D028EE5F39CEF0C070418C3C8CEAE1243481417F2277FC9207E8F78841653AF
674B1C37A6E9CBF4D9EAB1DB9B43D19AA1F4E24F7A6416A4EE6DB565CDD05616
A33EF1A61D74DF07506ACAE38DE6820F384560D39A53DD35302CEC5CDF0A6E42
239EC3344EC5088C3E4787480F876223BBFCF70E48F39A37C4B43B33000F1D7B
38128484865BC4E9614C3F8AB7FAB0829574ECFB30AAE5E954810282010100F9
E86D7571EF36C6A6735EEDEE2AA87FA7A6D269B0EC79D6A4053BB7327ACBBE00
8C5C713A056FCEF6777A5A3BC0BE7DB5B94032425394EF579F9847041765E3A0
9E9DBD942C8C09BB8EBCB8F5E941055F75BCD2DB1337A93FE2D66B2D4F3F6741
FAC20024402A067BD69892D830B8069D93AD3C47A46E12C78D6BA6292F3D3270
2F72DC29DF1FDA9BCE4467D13D0A7BA4A69E65B1205F443CB015533788B62919
EEA289BA5BAC4B943DA27B611FAAE83119CD5F877763475109ACECC97018BBC4
973E34A83C09DD43EF6E4FBECC79BF8B5A9BDABEF78E139FFD5C549848B0B593
377F105F5A4B2B44FCACC4745C56B54ABAD14DF31ABF738861F032D48DDE5D02
82010100E8E1F25C4EDDF32B479E092C19C824DC02AF331570EE89A557F69936
F40567377C1CFA0C077716EE8289D7F0467FA6CF96D483B62AFFCE075A8911EE
47E77B56550F2874BA4FA9B6BDEB00606DFE4BE54A2257DCA1AB0B7C394973B3
CAE48F9CB352452A6DDC1A8FA28AB85372F3E028C4CA44EE54EA61716F829FF9
6FABDEC82EE86B1213C5355778F0262F5E1DC5F292F4BD663D3C37438A4469BB
BDFCB3D0E0DE81C16154EBD1204F1D8AED4CFC97FFEB3066780EE143E78E2886
0FB637A62F3B6E85428C6FD4F357017AF9647E33E16D1DDF17FF524E53FB8E4D
3FE2B24D5DE0FEC1F9D2A6EA9CC63A3AA406584651A2CA6EB7A68AE00E8332C2
185F842102820100367ACBF9F17793BA64A8FC05E488DA28D2149504437499EF
07DCB832ECC746494A774EE3C42151498E0367E1E9EACFDC39D483C131226572
73E8AFDAB372A25CA8344BF0FB2F66EBEC3E66B7EFAC04E7B5F2C5D235BE0FC1
4ED315A951BC57F71BB41DBCC82A50BF0F1A2E32BCFC89F1AF42755E91C3AFD7
5A3763435AF11867397BAE8F7E754CCD6C6FE00BBDDA8FC17A987429791EB485
FCB0EA4534F311BB0E132ECDD5998C8B016B1A53C94D8D058746B7B5DEA3513A
47D953205F9D9756BFB9B4EEE7CA06E07CA1E2AB71CDC3B0D521509EB448E569
33D498DF3C3F847E60F49537AD81D2A74127D0461793D5B739EE5618A729AA98
F61F5BACC917906502820101008F88DB810B56FF0E78D8ADDC91936B2C73371A
AC276BCE48AB7BA1195EB389D787D6B04303C2E1CE6584A22444BF5EC7E9B5D7
EC4A7A59B8EC93390AFD246E3F5AB3BA029FE683BACF396D8501A64F8EE5EF5E
E9EC76E8E04ACABBD65FC219C5C23C7DC6D5E96831894428B1BE5313A0ED11A2
04A72FC29950DA58D13B83DA0ED5E288439F0DD87FAE598D9F7A49AD7C8218F8
37709C918F3E44464AE1A1440F04D9FF6D7A19063361CF816CE42FA42BE71F45
3892DCD0F8B25A4B1DBDC7586B4407446A3C0724D2429D289B6BE50567E29407
6A3E772E7A7A86BC415E93D1C39F8E1256EA2C6C9683C42595890D24114B35A3
C133CE212051B1897259E55D210282010100999A507C3D551ECC5F68A63C80E5
DC15177996E55203CDA99B69C1C6B4E2D7DE52660412BFD7CE9AC7C7427533A3
A442DCA58CB14F7B776D3D9A681FC7D3762A789E4BFBC7D854704CFE1726154C
DB9F1DC399AF2A687AFB2FCBD110EBD5A00AE8CA70DA5C94670AF149B909BC91
829848B4479470D843E800D366F735F7BCE5F209775156FB57F6B77316CD54F2
558938D43D500160A280F299906C8119BF67E6B080522EB7BF074E3E20141EA3
4F4DAABB32A15D3693E301ED3F0E35F2F663EC3F3F93DD63063ECFB12FD29CCE
F01A15B0BE6BA9BB352F11FF7DC08DB863BE69A77E4F3644EA12F949A3167FC8
2E67516B0572EC62AB9F05775636808B9E3C""",
"""08031279307702010104202D19BABF4420E2F25F075A71DA9DA86E29596C6013
B8FD50D5999F98DF636226A00A06082A8648CE3D030107A14403420004AA407C
C163A2BFF807DAE1BB58A67A3C1A3C80CF83C31C9736607407137511F06812B6
F497BA747F5CA6CB69E21ADA2F291A6040D2D58BD254E1ECCB13B72999""",
"""08011240B9EA7F0357B5C1247E4FCB5AD09C46818ECB07318CA84711875F4C6C
E6B946186A4EB44E0D714B2A2D48263D75CF52D30BEF9D9AE2A9FEB7DAF1775F
E731065A"""
]
PublicKeys = [
"""0800125E305C300D06092A864886F70D0101010500034B003048024100AD8A7D
5B0EB7C852C1464E4567651F412C692534E1600FDC5BDA9EDBFA9927AF0FFA7C
52599BE62999E085C345D21C8D43627CCC0E16D695C770E26D220AE709020301
0001""",
"""080012A20130819F300D06092A864886F70D010101050003818D003081890281
8100B91DCD5578C2FA3EA7D1DF62F59DEEDA834ECE568844554163E1803CDF4C
2988BE182B8F957D3405BC745A33DA1E714ABA13C316683767735ED72AE8B356
48FD6E33A49D696FADB6499C63A09204F0BF77B44D3917DC746FB7B520407257
46A3140E96E8682A02A4767C280DEFBE58C6ACB6DD1EE63F3F589F4C7941B279
57F70203010001""",
"""080012A60230820122300D06092A864886F70D01010105000382010F00308201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""",
"""080012A60430820222300D06092A864886F70D01010105000382020F00308202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""",
"""0803125B3059301306072A8648CE3D020106082A8648CE3D03010703420004AA
407CC163A2BFF807DAE1BB58A67A3C1A3C80CF83C31C9736607407137511F068
12B6F497BA747F5CA6CB69E21ADA2F291A6040D2D58BD254E1ECCB13B72999""",
"""080112206A4EB44E0D714B2A2D48263D75CF52D30BEF9D9AE2A9FEB7DAF1775F
E731065A"""
]
# Key expanding test vectors obtained from Go implementation
# https://github.com/libp2p/go-libp2p-crypto/blob/master/key.go
Secrets = [
# AES-128 SHA-256
"4F13360145891C202B74FDCA838A85A37CBAEBF5E0774CC344BD6DABA9C4C86A",
"""4ED31DA5EEA36277CA9E1C198F3EBB89AE4A6B18B76E48CAE8AEC23A7D0D4E8F
700D6696AB01365278E5C45C2B4B1807""",
"""01D4FBB5104F9B8DEDA95B447C1401A35F995B6BEFE20DBEFF9F7A13B7DA2831
FB5A7EA194C4CE1ECE340B993C4C2C53FE641227DB7428B62BF4083686F6FF8F
BE8C""",
# Edge case (where Go implementation returns 65 bytes of secret)
# Nim implementation has leading `00`.
"""00691BB84462F460D603B3F5FA0031D8DE195234C65B8890CBB6F84456E9718D
4572749FC6040D0602698EEE6CCF6FB83101A26925D1A3AB40FB45BF98EAF06A
2693""",
# AES-256 SHA-512
"1F29EC3E0A07994D2ACCEA23A2F570DA9C7A7E39D5026FE6340C1E551E1ADAAF",
"""85C20386C1EA1575DD8D111111DBC8B43CA630BEE4BB9AD91658719FF307C0BE
0065935B8B849BE80E0D08A3D39098C3""",
"""01779213E2993A77F1E1BB3B4DB77B5900B53A3A31CDE95D352C695643879824
C8EE6501DC8679F5735869251256830A31357B34FF463B9292C02CD22CD30351
C44F""",
# Edge case (where Go implementation returns 65 bytes of secret)
# Nim implementation has leading `00`.
"""001CC33294544D898781010258C2FB81F02429D2DD54D0B59B8CD2335F57498F
D4E444BEC94DA7BE2BAF3E3796AFA8388F626AEB3178355991985EE5FFC9D1AA
CAD9""",
# AES-256 SHA-1
"85076756644AAC06A47B29E25CB39B3E0C717152EE587F50C5A10281DB7F2FA5",
"""256D46C5E5449AA7B9BE985646D5F32E455BB4B7AAF3566507A023B72801A7BC
5066647E82DE2BC37FE22AB0DE440F77""",
"""01FF82C71215CFFD7A42A5CED03BD2256D4A5B6850472A5C5CA90665D510F038
A21F3A6EA0BB0A64113960C54DDAFC5E7A5F018E4413D7CC93C736A8D30579ED
5A2B""",
# Edge case (where Go implementation returns 65 bytes of secret)
# Nim implementation has leading `00`.
"""00360D9410E58534AC6A89CA5AC17E9455F619DCA71A6C2FB6F3156AE58DDB91
6E9A7D223D1D7DD05D5475BFC4C517C85475600AAF6F28703ED1203281369A41
9A7C"""
]
Ivs = [
"F643627AA8B91D40BA644B894C7F148E",
"F1D6521E4EE59248F7CCFA6D6C916A32",
"937D77D24441858AF5040C9A81B3D178",
"C7D6AE667F38A3E0C77F4AC96D82112F",
"735E51C37802A6E72277EE74C829A84D",
"617BAEA342062AE87B7A5D5D9F99371C",
"B535FFA95043C90C5FEEF3654E846445",
"3B2D2219A7EE18AB9164910821955C05",
"DACC23805C4ED233A7100A488AB5D68F",
"C5BFA3F8BF0D8436840D1AAAF091BD69",
"54CA4A681AEB8B5793A450100244256F",
"D1EB94C73D4C033EA4130B47669F4485",
"1F1ADF6BBDE1DFC5F922D672D2344F3A",
"A828F6D249F38A917CD297F7BDDE7B70",
"54FC8070579A17F6DAD342174062D60A",
"D33C7696183DA21C5CD40AB677BECE7C",
"9EFF93741DC080A15B9E554080AB9869",
"7A007E351C9A5C930D01645D97648F8C",
"934DB2529D1D3AC37BAD56FD1E522196",
"30D19C3C1AB9A3391A5F88E92307261D",
"32ED1A961630D94A279F99757B3131CB",
"003ABE572377D59B74713425854FED29",
"3338850C0A4D7BD53C70E40FA0079AA2",
"62787F194DC218C5B0DAFD806F0D3125"
]
CipherKeys = [
"8C2964320284FAD935AFEC1AFEC9EEF7",
"622A9292256B012F3EBE814C0DB22095",
"3171DCDBE794BB6CAADDDD71E1751F2C",
"5E1519DFCABA2AF17AA4AA580CC1B76E",
"8B7AC311FF7B7EA7B4E55E37688DA2BD",
"6BB6E06A3A92D5C300598023330712D4",
"D794A6B794C1E3501A24240D348B9A62",
"45E2FFAC35B7647AD5045C8581F39BF0",
"B2F8CDBD11B158DC68120E10A6D04C0B272DC3F698EB56B18094275076307CEB",
"E0238BAA6B77646CD708DD00DE1FD17C6BB45F184348F512F4AE64E00CEA37B9",
"CE009DE8D1C76C2793540A8B24774E09B0F84590B583F1A0551AC0CF1E911BF9",
"ED5F14E36F4F2F80084571B24FD55C870B9C2AD937694B75B90E67D3591DC921",
"1607CC9FF2B19E8F0CDA902D5996948E8EA8CFFA03F956038497684088A88B2F",
"FC2797D1040FF162A90275EBA3FCC4330C2BDC28D23DA80B89842C2D7A6EFA06",
"B83698789ED8E3B44E48EAAEB291B3003AD95FAF344EBA1B9071F4FB46A4E4E9",
"5D90C579971B7B7F9ECDE55EBCE8921B807AAD45D61952228758BA80F4490E8F",
"1C429A32A2E16168D3E3F942AEEAD708456C6566D800D5B7A6DCE8184739F16D",
"84987E7CC9F71243408454DD0787F438CCB62C79ED56078FD920FFFD7D5C44FF",
"971372E385E0F9FED8F67C922D0F5EB77D7D7818F63B26EF80C4D3C81D9E1B97",
"F20AE0A5387B2D1D38B8B340466D252F894C00C5907EE3A510442E4F38966AB0",
"B58F32D83C7A91B6B1DA731334D70502348CD82EFB8258C0AE316B983F2F1E1E",
"5903FE75A1C328BE6C98EB4A4EFF19C67D3C52C87B3131047F3773201D44BFCE",
"55EAD85B3124C36828ED3A43698952111EECE8C7FB156D71EE3F84E088B4F4CE",
"E4C99C782A88B69E5D83F4DEFDD2AE61A397486E17EC9EAE6EC679A75E47BBCD"
]
MacKeys = [
"2C812CB8425299B485CEE0BC97778F540380F14F",
"8AB685E8A66256480E794B0ADC09BCF4014883C8",
"C68EF3F3102D0CEFC0924FEF17D51FABC23EA54C",
"F177BD066555CF25327C32C807D2E44B7DAC3EFF",
"57176FF3103FA0F4EB58B9E49133C48B4DE9BDE6",
"0C9ECECB80DF43CA2720DD340DD992A80AAB56DB",
"028BCC3F5559CF43DA1B0C1A03E263C90D04DD77",
"02DAF3FF888999C6121CA50F1D49C10FF55F1ACF",
"6F015DDA49E0DFABD5532E6CB08709CE43F326EC",
"68C703B3867247723D21A8C58BA9109DDBB359EF",
"6C91DBB5FE99B94A11D0937D0F4E50F2BCB248F3",
"D5A856ECC5820D611111BE8CEAAD781E6E4E549D",
"9DCEB01D9657A69D40B1885C392FA850486E32B3",
"EE66A1579D732E99A8500F48595BF25289E722DB",
"E692EC73B0A2E68625221E1D01BA0E6B24BCB43F",
"8613E8F86D2DD1CF3CEDC52AD91423F2F31E0003",
"F8A7EF47F37257B54A5028424E64F172E532E7E7",
"4D3596723AECD3DF21A20E956755782E783C9E4A",
"484860090D99F4B702C809294037E6C7F6E58BBA",
"15163D55C0A32E79E0EDD8E8EDA5AC9564B5488C",
"6116BCB44773E3342AB5671D2AC107D4C9EC0757",
"1CA3FCA023C72B7695481CA815856FEF0C5D7E9E",
"E34004C383C36201DC23E062DAE791C76738C28E",
"FA5CB0689A1DFDBAE8618BC079D70E318377B0DA"
]
proc cmp(a, b: openarray[byte]): bool =
result = (@a == @b)
proc testStretcher(s, e: int, cs: CipherScheme, ds: DigestSheme): bool =
for i in s..<e:
var sharedsecret = fromHex(stripSpaces(Secrets[i]))
var secret = stretchKeys(cs, ds, sharedsecret)
var iv1 = fromHex(stripSpaces(Ivs[i * 2]))
var iv2 = fromHex(stripSpaces(Ivs[i * 2 + 1]))
var ckey1 = fromHex(stripSpaces(CipherKeys[i * 2]))
var ckey2 = fromHex(stripSpaces(CipherKeys[i * 2 + 1]))
var mkey1 = fromHex(stripSpaces(MacKeys[i * 2]))
var mkey2 = fromHex(stripSpaces(MacKeys[i * 2 + 1]))
var r1 = cmp(secret.ivOpenArray(0), iv1) == true
var r2 = cmp(secret.ivOpenArray(1), iv2) == true
var r3 = secret.iv(0) == iv1
var r4 = secret.iv(1) == iv2
var r5 = cmp(secret.keyOpenArray(0), ckey1) == true
var r6 = cmp(secret.keyOpenArray(1), ckey2) == true
var r7 = secret.key(0) == ckey1
var r8 = secret.key(1) == ckey2
var r9 = cmp(secret.macOpenArray(0), mkey1) == true
var rA = cmp(secret.macOpenArray(1), mkey2) == true
var rB = secret.mac(0) == mkey1
var rC = secret.mac(1) == mkey2
result = r1 and r2 and r3 and r4 and r5 and r6 and r7 and r8 and
r9 and rA and rB and rC
if not result:
break
suite "Key interface test suite":
test "Go test vectors":
for i in 0..<len(PrivateKeys):
var seckey = PrivateKey.init(fromHex(stripSpaces(PrivateKeys[i])))
var pubkey = PublicKey.init(fromHex(stripSpaces(PublicKeys[i])))
var calckey = seckey.getKey()
check:
pubkey == calckey
var checkseckey = seckey.getBytes()
var checkpubkey = pubkey.getBytes()
check:
toHex(checkseckey) == stripSpaces(PrivateKeys[i])
toHex(checkpubkey) == stripSpaces(PublicKeys[i])
test "Go key stretch function AES128-SHA256 test vectors":
check testStretcher(0, 4, Aes128, Sha256) == true
test "Go key stretch function AES256-SHA512 test vectors":
check testStretcher(4, 8, Aes256, Sha512) == true
test "Go key stretch function AES256-SHA1 test vectors":
check testStretcher(8, 12, Aes256, Sha1) == true