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Remove Br prefix from BearSSL (#728) 

ref status-im/nim-bearssl#27
This commit is contained in:
Tanguy 2022-06-16 10:08:52 +02:00 committed by GitHub
parent 718374d890
commit a7e335e1bb
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32 changed files with 247 additions and 257 deletions
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2
.pinned
View File

@ -1,5 +1,5 @@
asynctest;https://github.com/markspanbroek/asynctest@#5347c59b4b057443a014722aa40800cd8bb95c69
bearssl;https://github.com/status-im/nim-bearssl@#0ebb1d7a4af5f4b4d4756a9b6dbfe5d411fa55d9
bearssl;https://github.com/status-im/nim-bearssl@#c4aec8b664709356060b71b7e495be62ca446a65
chronicles;https://github.com/status-im/nim-chronicles@#2a2681b60289aaf7895b7056f22616081eb1a882
chronos;https://github.com/status-im/nim-chronos@#875d7d8e6ef0803ae1c331dbf76b1981b0caeb15
dnsclient;https://github.com/ba0f3/dnsclient.nim@#fbb76f8af8a33ab818184a7d4406d9fee20993be

2
docs/tutorial/second.nim
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@ -150,7 +150,7 @@ proc readInput(wfd: AsyncFD) {.thread.} =
let line = stdin.readLine()
discard waitFor transp.write(line & "\r\n")
proc processInput(rfd: AsyncFD, rng: ref BrHmacDrbgContext) {.async.} =
proc processInput(rfd: AsyncFD, rng: ref HmacDrbgContext) {.async.} =
let transp = fromPipe(rfd)
let seckey = PrivateKey.random(RSA, rng[]).get()

2
examples/directchat.nim
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@ -2,7 +2,7 @@ when not(compileOption("threads")):
{.fatal: "Please, compile this program with the --threads:on option!".}
import
strformat, strutils, bearssl,
strformat, strutils,
stew/byteutils,
chronos,
../libp2p

3
examples/helloworld.nim
View File

@ -1,4 +1,3 @@
import bearssl
import chronos # an efficient library for async
import stew/byteutils # various utils
import ../libp2p # when installed through nimble, just use `import libp2p`
@ -26,7 +25,7 @@ proc new(T: typedesc[TestProto]): T =
##
# Helper to create a switch/node
##
proc createSwitch(ma: MultiAddress, rng: ref BrHmacDrbgContext): Switch =
proc createSwitch(ma: MultiAddress, rng: ref HmacDrbgContext): Switch =
var switch = SwitchBuilder
.new()
.withRng(rng) # Give the application RNG

4
examples/tutorial_1_connect.md
View File

@ -24,18 +24,16 @@ _TIP: You can extract the code from this tutorial by running `nim c -r tools/mar
Let's create a `part1.nim`, and import our dependencies:
```nim
import bearssl
import chronos
import libp2p
import libp2p/protocols/ping
```
[bearssl](https://github.com/status-im/nim-bearssl) is used as a [cryptographic pseudorandom number generator](https://en.wikipedia.org/wiki/Cryptographically-secure_pseudorandom_number_generator)
[chronos](https://github.com/status-im/nim-chronos) the asynchronous framework used by `nim-libp2p`
Next, we'll create an helper procedure to create our switches. A switch needs a bit of configuration, and it will be easier to do this configuration only once:
```nim
proc createSwitch(ma: MultiAddress, rng: ref BrHmacDrbgContext): Switch =
proc createSwitch(ma: MultiAddress, rng: ref HmacDrbgContext): Switch =
var switch = SwitchBuilder
.new()
.withRng(rng) # Give the application RNG

1
examples/tutorial_2_customproto.md
View File

@ -5,7 +5,6 @@ We'll now look at how to create a custom protocol inside the libp2p
# Custom protocol in libp2p
Let's create a `part2.nim`, and import our dependencies:
```nim
import bearssl
import chronos
import stew/byteutils

4
libp2p.nim
View File

@ -30,11 +30,9 @@ import
crypto/crypto,
protocols/pubsub]
import bearssl
export
minprotobuf, switch, peerid, peerinfo,
connection, multiaddress, crypto, lpstream,
bufferstream, bearssl, muxer, mplex, transport,
bufferstream, muxer, mplex, transport,
tcptransport, noise, errors, cid, multihash,
multicodec, builders, pubsub

6
libp2p/builders.nim
View File

@ -10,7 +10,7 @@
{.push raises: [Defect].}
import
options, tables, chronos, chronicles, bearssl,
options, tables, chronos, chronicles,
switch, peerid, peerinfo, stream/connection, multiaddress,
crypto/crypto, transports/[transport, tcptransport],
muxers/[muxer, mplex/mplex],
@ -39,7 +39,7 @@ type
secureManagers: seq[SecureProtocol]
mplexOpts: MplexOpts
transports: seq[TransportProvider]
rng: ref BrHmacDrbgContext
rng: ref HmacDrbgContext
maxConnections: int
maxIn: int
sendSignedPeerRecord: bool
@ -116,7 +116,7 @@ proc withTransport*(b: SwitchBuilder, prov: TransportProvider): SwitchBuilder =
proc withTcpTransport*(b: SwitchBuilder, flags: set[ServerFlags] = {}): SwitchBuilder =
b.withTransport(proc(upgr: Upgrade): Transport = TcpTransport.new(flags, upgr))
proc withRng*(b: SwitchBuilder, rng: ref BrHmacDrbgContext): SwitchBuilder =
proc withRng*(b: SwitchBuilder, rng: ref HmacDrbgContext): SwitchBuilder =
b.rng = rng
b

27
libp2p/crypto/chacha20poly1305.nim
View File

@ -17,17 +17,10 @@
{.push raises: [Defect].}
import bearssl
import bearssl/blockx
from stew/assign2 import assign
from stew/ranges/ptr_arith import baseAddr
# have to do this due to a nim bug and raises[] on callbacks
# https://github.com/nim-lang/Nim/issues/13905
proc ourPoly1305CtmulRun*(key: pointer; iv: pointer; data: pointer; len: int;
aad: pointer; aadLen: int; tag: pointer; ichacha: pointer;
encrypt: cint) {.cdecl, importc: "br_poly1305_ctmul_run",
header: "bearssl_block.h".}
const
ChaChaPolyKeySize = 32
ChaChaPolyNonceSize = 12
@ -67,15 +60,16 @@ proc encrypt*(_: type[ChaChaPoly],
else:
nil
ourPoly1305CtmulRun(
poly1305CtmulRun(
unsafeAddr key[0],
unsafeAddr nonce[0],
baseAddr(data),
data.len,
uint(data.len),
ad,
aad.len,
uint(aad.len),
baseAddr(tag),
chacha20CtRun,
# cast is required to workaround https://github.com/nim-lang/Nim/issues/13905
cast[Chacha20Run](chacha20CtRun),
#[encrypt]# 1.cint)
proc decrypt*(_: type[ChaChaPoly],
@ -90,13 +84,14 @@ proc decrypt*(_: type[ChaChaPoly],
else:
nil
ourPoly1305CtmulRun(
poly1305CtmulRun(
unsafeAddr key[0],
unsafeAddr nonce[0],
baseAddr(data),
data.len,
uint(data.len),
ad,
aad.len,
uint(aad.len),
baseAddr(tag),
chacha20CtRun,
# cast is required to workaround https://github.com/nim-lang/Nim/issues/13905
cast[Chacha20Run](chacha20CtRun),
#[decrypt]# 0.cint)

30
libp2p/crypto/crypto.nim
View File

@ -69,7 +69,7 @@ when supported(PKScheme.Secp256k1):
# We are still importing `ecnist` because, it is used for SECIO handshake,
# but it will be impossible to create ECNIST keys or import ECNIST keys.
import ecnist, bearssl
import ecnist, bearssl/rand, bearssl/hash as bhash
import ../protobuf/minprotobuf, ../vbuffer, ../multihash, ../multicodec
import nimcrypto/[rijndael, twofish, sha2, hash, hmac]
# We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures.
@ -79,7 +79,7 @@ import stew/results
export results
# This is workaround for Nim's `import` bug
export rijndael, twofish, sha2, hash, hmac, ncrutils
export rijndael, twofish, sha2, hash, hmac, ncrutils, rand
type
DigestSheme* = enum
@ -158,26 +158,28 @@ type
template orError*(exp: untyped, err: untyped): untyped =
(exp.mapErr do (_: auto) -> auto: err)
proc newRng*(): ref BrHmacDrbgContext =
proc newRng*(): ref HmacDrbgContext =
# You should only create one instance of the RNG per application / library
# Ref is used so that it can be shared between components
# TODO consider moving to bearssl
var seeder = brPrngSeederSystem(nil)
var seeder = prngSeederSystem(nil)
if seeder == nil:
return nil
var rng = (ref BrHmacDrbgContext)()
brHmacDrbgInit(addr rng[], addr sha256Vtable, nil, 0)
var rng = (ref HmacDrbgContext)()
hmacDrbgInit(rng[], addr sha256Vtable, nil, 0)
if seeder(addr rng.vtable) == 0:
return nil
rng
proc shuffle*[T](
rng: ref BrHmacDrbgContext,
rng: ref HmacDrbgContext,
x: var openArray[T]) =
if x.len == 0: return
var randValues = newSeqUninitialized[byte](len(x) * 2)
brHmacDrbgGenerate(rng[], randValues)
hmacDrbgGenerate(rng[], randValues)
for i in countdown(x.high, 1):
let
@ -186,7 +188,7 @@ proc shuffle*[T](
swap(x[i], x[y])
proc random*(T: typedesc[PrivateKey], scheme: PKScheme,
rng: var BrHmacDrbgContext,
rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[PrivateKey] =
## Generate random private key for scheme ``scheme``.
##
@ -218,7 +220,7 @@ proc random*(T: typedesc[PrivateKey], scheme: PKScheme,
else:
err(SchemeError)
proc random*(T: typedesc[PrivateKey], rng: var BrHmacDrbgContext,
proc random*(T: typedesc[PrivateKey], rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[PrivateKey] =
## Generate random private key using default public-key cryptography scheme.
##
@ -242,7 +244,7 @@ proc random*(T: typedesc[PrivateKey], rng: var BrHmacDrbgContext,
err(SchemeError)
proc random*(T: typedesc[KeyPair], scheme: PKScheme,
rng: var BrHmacDrbgContext,
rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[KeyPair] =
## Generate random key pair for scheme ``scheme``.
##
@ -282,7 +284,7 @@ proc random*(T: typedesc[KeyPair], scheme: PKScheme,
else:
err(SchemeError)
proc random*(T: typedesc[KeyPair], rng: var BrHmacDrbgContext,
proc random*(T: typedesc[KeyPair], rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[KeyPair] =
## Generate random private pair of keys using default public-key cryptography
## scheme.
@ -870,7 +872,7 @@ proc mac*(secret: Secret, id: int): seq[byte] {.inline.} =
proc ephemeral*(
scheme: ECDHEScheme,
rng: var BrHmacDrbgContext): CryptoResult[EcKeyPair] =
rng: var HmacDrbgContext): CryptoResult[EcKeyPair] =
## Generate ephemeral keys used to perform ECDHE.
var keypair: EcKeyPair
if scheme == Secp256r1:
@ -882,7 +884,7 @@ proc ephemeral*(
ok(keypair)
proc ephemeral*(
scheme: string, rng: var BrHmacDrbgContext): CryptoResult[EcKeyPair] =
scheme: string, rng: var HmacDrbgContext): CryptoResult[EcKeyPair] =
## Generate ephemeral keys used to perform ECDHE using string encoding.
##
## Currently supported encoding strings are P-256, P-384, P-521, if encoding

20
libp2p/crypto/curve25519.nim
View File

@ -17,7 +17,7 @@
{.push raises: [Defect].}
import bearssl
import bearssl/[ec, rand, hash]
import stew/results
from stew/assign2 import assign
export results
@ -46,7 +46,7 @@ proc byteswap(buf: var Curve25519Key) {.inline.} =
buf[31 - i] = x
proc mul*(_: type[Curve25519], point: var Curve25519Key, multiplier: Curve25519Key) =
let defaultBrEc = brEcGetDefault()
let defaultBrEc = ecGetDefault()
# multiplier needs to be big-endian
var
@ -54,15 +54,15 @@ proc mul*(_: type[Curve25519], point: var Curve25519Key, multiplier: Curve25519K
multiplierBs.byteswap()
let
res = defaultBrEc.mul(
cast[pcuchar](addr point[0]),
addr point[0],
Curve25519KeySize,
cast[pcuchar](addr multiplierBs[0]),
addr multiplierBs[0],
Curve25519KeySize,
EC_curve25519)
assert res == 1
proc mulgen(_: type[Curve25519], dst: var Curve25519Key, point: Curve25519Key) =
let defaultBrEc = brEcGetDefault()
let defaultBrEc = ecGetDefault()
var
rpoint = point
@ -70,8 +70,8 @@ proc mulgen(_: type[Curve25519], dst: var Curve25519Key, point: Curve25519Key) =
let
size = defaultBrEc.mulgen(
cast[pcuchar](addr dst[0]),
cast[pcuchar](addr rpoint[0]),
addr dst[0],
addr rpoint[0],
Curve25519KeySize,
EC_curve25519)
@ -80,10 +80,10 @@ proc mulgen(_: type[Curve25519], dst: var Curve25519Key, point: Curve25519Key) =
proc public*(private: Curve25519Key): Curve25519Key =
Curve25519.mulgen(result, private)
proc random*(_: type[Curve25519Key], rng: var BrHmacDrbgContext): Curve25519Key =
proc random*(_: type[Curve25519Key], rng: var HmacDrbgContext): Curve25519Key =
var res: Curve25519Key
let defaultBrEc = brEcGetDefault()
let len = brEcKeygen(
let defaultBrEc = ecGetDefault()
let len = ecKeygen(
addr rng.vtable, defaultBrEc, nil, addr res[0], EC_curve25519)
# Per bearssl documentation, the keygen only fails if the curve is
# unrecognised -

124
libp2p/crypto/ecnist.nim
View File

@ -16,7 +16,7 @@
{.push raises: [Defect].}
import bearssl
import bearssl/[ec, rand, hash]
# We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures.
import nimcrypto/utils as ncrutils
import minasn1
@ -40,12 +40,12 @@ const
type
EcPrivateKey* = ref object
buffer*: array[BR_EC_KBUF_PRIV_MAX_SIZE, byte]
key*: BrEcPrivateKey
buffer*: array[EC_KBUF_PRIV_MAX_SIZE, byte]
key*: ec.EcPrivateKey
EcPublicKey* = ref object
buffer*: array[BR_EC_KBUF_PUB_MAX_SIZE, byte]
key*: BrEcPublicKey
buffer*: array[EC_KBUF_PUB_MAX_SIZE, byte]
key*: ec.EcPublicKey
EcKeyPair* = object
seckey*: EcPrivateKey
@ -55,9 +55,9 @@ type
buffer*: seq[byte]
EcCurveKind* = enum
Secp256r1 = BR_EC_SECP256R1,
Secp384r1 = BR_EC_SECP384R1,
Secp521r1 = BR_EC_SECP521R1
Secp256r1 = EC_SECP256R1,
Secp384r1 = EC_SECP384R1,
Secp521r1 = EC_SECP521R1
EcPKI* = EcPrivateKey | EcPublicKey | EcSignature
@ -101,15 +101,15 @@ proc checkScalar(scalar: openArray[byte], curve: cint): uint32 =
## - ``scalar`` is lower than the curve ``order``.
##
## Otherwise, return ``0``.
var impl = brEcGetDefault()
var orderlen = 0
var order = cast[ptr UncheckedArray[byte]](impl.order(curve, addr orderlen))
var impl = ecGetDefault()
var orderlen: uint = 0
var order = cast[ptr UncheckedArray[byte]](impl.order(curve, orderlen))
var z = 0'u32
var c = 0'i32
for u in scalar:
z = z or u
if len(scalar) == orderlen:
if len(scalar) == int(orderlen):
for i in 0..<len(scalar):
c = c or (-(cast[int32](EQ0(c))) and CMP(scalar[i], order[i]))
else:
@ -119,12 +119,12 @@ proc checkScalar(scalar: openArray[byte], curve: cint): uint32 =
proc checkPublic(key: openArray[byte], curve: cint): uint32 =
## Return ``1`` if public key ``key`` is on curve.
var ckey = @key
var x = [0x00'u8, 0x01'u8]
var impl = brEcGetDefault()
var orderlen = 0
discard impl.order(curve, addr orderlen)
result = impl.mul(cast[ptr char](unsafeAddr ckey[0]), len(ckey),
cast[ptr char](addr x[0]), len(x), curve)
var x = [byte 0x00, 0x01]
var impl = ecGetDefault()
var orderlen: uint = 0
discard impl.order(curve, orderlen)
result = impl.mul(unsafeAddr ckey[0], uint(len(ckey)),
addr x[0], uint(len(x)), curve)
proc getOffset(pubkey: EcPublicKey): int {.inline.} =
let o = cast[uint](pubkey.key.q) - cast[uint](unsafeAddr pubkey.buffer[0])
@ -174,7 +174,7 @@ proc copy*[T: EcPKI](dst: var T, src: T): bool =
dst.buffer = src.buffer
dst.key.curve = src.key.curve
dst.key.xlen = length
dst.key.x = cast[ptr char](addr dst.buffer[offset])
dst.key.x = addr dst.buffer[offset]
result = true
elif T is EcPublicKey:
let length = src.key.qlen
@ -184,7 +184,7 @@ proc copy*[T: EcPKI](dst: var T, src: T): bool =
dst.buffer = src.buffer
dst.key.curve = src.key.curve
dst.key.qlen = length
dst.key.q = cast[ptr char](addr dst.buffer[offset])
dst.key.q = addr dst.buffer[offset]
result = true
else:
let length = len(src.buffer)
@ -230,15 +230,15 @@ proc clear*[T: EcPKI|EcKeyPair](pki: var T) =
proc random*(
T: typedesc[EcPrivateKey], kind: EcCurveKind,
rng: var BrHmacDrbgContext): EcResult[EcPrivateKey] =
rng: var HmacDrbgContext): EcResult[EcPrivateKey] =
## Generate new random EC private key using BearSSL's HMAC-SHA256-DRBG
## algorithm.
##
## ``kind`` elliptic curve kind of your choice (secp256r1, secp384r1 or
## secp521r1).
var ecimp = brEcGetDefault()
var ecimp = ecGetDefault()
var res = new EcPrivateKey
if brEcKeygen(addr rng.vtable, ecimp,
if ecKeygen(addr rng.vtable, ecimp,
addr res.key, addr res.buffer[0],
cast[cint](kind)) == 0:
err(EcKeyGenError)
@ -250,12 +250,12 @@ proc getPublicKey*(seckey: EcPrivateKey): EcResult[EcPublicKey] =
if isNil(seckey):
return err(EcKeyIncorrectError)
var ecimp = brEcGetDefault()
var ecimp = ecGetDefault()
if seckey.key.curve in EcSupportedCurvesCint:
var res = new EcPublicKey
assert res.buffer.len > getPublicKeyLength(cast[EcCurveKind](seckey.key.curve))
if brEcComputePublicKey(ecimp, addr res.key,
addr res.buffer[0], unsafeAddr seckey.key) == 0:
if ecComputePub(ecimp, addr res.key,
addr res.buffer[0], unsafeAddr seckey.key) == 0:
err(EcKeyIncorrectError)
else:
ok(res)
@ -264,7 +264,7 @@ proc getPublicKey*(seckey: EcPrivateKey): EcResult[EcPublicKey] =
proc random*(
T: typedesc[EcKeyPair], kind: EcCurveKind,
rng: var BrHmacDrbgContext): EcResult[T] =
rng: var HmacDrbgContext): EcResult[T] =
## Generate new random EC private and public keypair using BearSSL's
## HMAC-SHA256-DRBG algorithm.
##
@ -373,24 +373,24 @@ proc toBytes*(seckey: EcPrivateKey, data: var openArray[byte]): EcResult[int] =
var p = Asn1Composite.init(Asn1Tag.Sequence)
var c0 = Asn1Composite.init(0)
var c1 = Asn1Composite.init(1)
if seckey.key.curve == BR_EC_SECP256R1:
if seckey.key.curve == EC_SECP256R1:
c0.write(Asn1Tag.Oid, Asn1OidSecp256r1)
elif seckey.key.curve == BR_EC_SECP384R1:
elif seckey.key.curve == EC_SECP384R1:
c0.write(Asn1Tag.Oid, Asn1OidSecp384r1)
elif seckey.key.curve == BR_EC_SECP521R1:
elif seckey.key.curve == EC_SECP521R1:
c0.write(Asn1Tag.Oid, Asn1OidSecp521r1)
c0.finish()
offset = pubkey.getOffset()
if offset < 0:
return err(EcKeyIncorrectError)
length = pubkey.key.qlen
length = int(pubkey.key.qlen)
c1.write(Asn1Tag.BitString,
pubkey.buffer.toOpenArray(offset, offset + length - 1))
c1.finish()
offset = seckey.getOffset()
if offset < 0:
return err(EcKeyIncorrectError)
length = seckey.key.xlen
length = int(seckey.key.xlen)
p.write(1'u64)
p.write(Asn1Tag.OctetString,
seckey.buffer.toOpenArray(offset, offset + length - 1))
@ -421,18 +421,18 @@ proc toBytes*(pubkey: EcPublicKey, data: var openArray[byte]): EcResult[int] =
var p = Asn1Composite.init(Asn1Tag.Sequence)
var c = Asn1Composite.init(Asn1Tag.Sequence)
c.write(Asn1Tag.Oid, Asn1OidEcPublicKey)
if pubkey.key.curve == BR_EC_SECP256R1:
if pubkey.key.curve == EC_SECP256R1:
c.write(Asn1Tag.Oid, Asn1OidSecp256r1)
elif pubkey.key.curve == BR_EC_SECP384R1:
elif pubkey.key.curve == EC_SECP384R1:
c.write(Asn1Tag.Oid, Asn1OidSecp384r1)
elif pubkey.key.curve == BR_EC_SECP521R1:
elif pubkey.key.curve == EC_SECP521R1:
c.write(Asn1Tag.Oid, Asn1OidSecp521r1)
c.finish()
p.write(c)
let offset = getOffset(pubkey)
if offset < 0:
return err(EcKeyIncorrectError)
let length = pubkey.key.qlen
let length = int(pubkey.key.qlen)
p.write(Asn1Tag.BitString,
pubkey.buffer.toOpenArray(offset, offset + length - 1))
p.finish()
@ -638,8 +638,8 @@ proc init*(key: var EcPrivateKey, data: openArray[byte]): Result[void, Asn1Error
if checkScalar(raw.toOpenArray(), curve) == 1'u32:
key = new EcPrivateKey
copyMem(addr key.buffer[0], addr raw.buffer[raw.offset], raw.length)
key.key.x = cast[ptr char](addr key.buffer[0])
key.key.xlen = raw.length
key.key.x = addr key.buffer[0]
key.key.xlen = uint(raw.length)
key.key.curve = curve
ok()
else:
@ -697,8 +697,8 @@ proc init*(pubkey: var EcPublicKey, data: openArray[byte]): Result[void, Asn1Err
if checkPublic(raw.toOpenArray(), curve) != 0:
pubkey = new EcPublicKey
copyMem(addr pubkey.buffer[0], addr raw.buffer[raw.offset], raw.length)
pubkey.key.q = cast[ptr char](addr pubkey.buffer[0])
pubkey.key.qlen = raw.length
pubkey.key.q = addr pubkey.buffer[0]
pubkey.key.qlen = uint(raw.length)
pubkey.key.curve = curve
ok()
else:
@ -785,8 +785,8 @@ proc initRaw*(key: var EcPrivateKey, data: openArray[byte]): bool =
let length = len(data)
key = new EcPrivateKey
copyMem(addr key.buffer[0], unsafeAddr data[0], length)
key.key.x = cast[ptr char](addr key.buffer[0])
key.key.xlen = length
key.key.x = addr key.buffer[0]
key.key.xlen = uint(length)
key.key.curve = curve
result = true
@ -816,8 +816,8 @@ proc initRaw*(pubkey: var EcPublicKey, data: openArray[byte]): bool =
let length = len(data)
pubkey = new EcPublicKey
copyMem(addr pubkey.buffer[0], unsafeAddr data[0], length)
pubkey.key.q = cast[ptr char](addr pubkey.buffer[0])
pubkey.key.qlen = length
pubkey.key.q = addr pubkey.buffer[0]
pubkey.key.qlen = uint(length)
pubkey.key.curve = curve
result = true
@ -883,7 +883,7 @@ proc scalarMul*(pub: EcPublicKey, sec: EcPrivateKey): EcPublicKey =
##
## Returns point in curve as ``pub * sec`` or ``nil`` otherwise.
doAssert((not isNil(pub)) and (not isNil(sec)))
var impl = brEcGetDefault()
var impl = ecGetDefault()
if sec.key.curve in EcSupportedCurvesCint:
if pub.key.curve == sec.key.curve:
var key = new EcPublicKey
@ -891,9 +891,9 @@ proc scalarMul*(pub: EcPublicKey, sec: EcPrivateKey): EcPublicKey =
let poffset = key.getOffset()
let soffset = sec.getOffset()
if poffset >= 0 and soffset >= 0:
let res = impl.mul(cast[ptr char](addr key.buffer[poffset]),
let res = impl.mul(addr key.buffer[poffset],
key.key.qlen,
cast[ptr char](unsafeAddr sec.buffer[soffset]),
unsafeAddr sec.buffer[soffset],
sec.key.xlen,
key.key.curve)
if res != 0:
@ -913,11 +913,11 @@ proc toSecret*(pubkey: EcPublicKey, seckey: EcPrivateKey,
doAssert((not isNil(pubkey)) and (not isNil(seckey)))
var mult = scalarMul(pubkey, seckey)
if not isNil(mult):
if seckey.key.curve == BR_EC_SECP256R1:
if seckey.key.curve == EC_SECP256R1:
result = Secret256Length
elif seckey.key.curve == BR_EC_SECP384R1:
elif seckey.key.curve == EC_SECP384R1:
result = Secret384Length
elif seckey.key.curve == BR_EC_SECP521R1:
elif seckey.key.curve == EC_SECP521R1:
result = Secret521Length
if len(data) >= result:
var qplus1 = cast[pointer](cast[uint](mult.key.q) + 1'u)
@ -941,20 +941,20 @@ proc sign*[T: byte|char](seckey: EcPrivateKey,
## Get ECDSA signature of data ``message`` using private key ``seckey``.
if isNil(seckey):
return err(EcKeyIncorrectError)
var hc: BrHashCompatContext
var hc: HashCompatContext
var hash: array[32, byte]
var impl = brEcGetDefault()
var impl = ecGetDefault()
if seckey.key.curve in EcSupportedCurvesCint:
var sig = new EcSignature
sig.buffer = newSeq[byte](256)
var kv = addr sha256Vtable
kv.init(addr hc.vtable)
if len(message) > 0:
kv.update(addr hc.vtable, unsafeAddr message[0], len(message))
kv.update(addr hc.vtable, unsafeAddr message[0], uint(len(message)))
else:
kv.update(addr hc.vtable, nil, 0)
kv.output(addr hc.vtable, addr hash[0])
let res = brEcdsaSignAsn1(impl, kv, addr hash[0], addr seckey.key,
kv.out(addr hc.vtable, addr hash[0])
let res = ecdsaI31SignAsn1(impl, kv, addr hash[0], addr seckey.key,
addr sig.buffer[0])
# Clear context with initial value
kv.init(addr hc.vtable)
@ -974,20 +974,20 @@ proc verify*[T: byte|char](sig: EcSignature, message: openArray[T],
## Return ``true`` if message verification succeeded, ``false`` if
## verification failed.
doAssert((not isNil(sig)) and (not isNil(pubkey)))
var hc: BrHashCompatContext
var hc: HashCompatContext
var hash: array[32, byte]
var impl = brEcGetDefault()
var impl = ecGetDefault()
if pubkey.key.curve in EcSupportedCurvesCint:
var kv = addr sha256Vtable
kv.init(addr hc.vtable)
if len(message) > 0:
kv.update(addr hc.vtable, unsafeAddr message[0], len(message))
kv.update(addr hc.vtable, unsafeAddr message[0], uint(len(message)))
else:
kv.update(addr hc.vtable, nil, 0)
kv.output(addr hc.vtable, addr hash[0])
let res = brEcdsaVerifyAsn1(impl, addr hash[0], len(hash),
unsafeAddr pubkey.key,
addr sig.buffer[0], len(sig.buffer))
kv.out(addr hc.vtable, addr hash[0])
let res = ecdsaI31VrfyAsn1(impl, addr hash[0], uint(len(hash)),
unsafeAddr pubkey.key,
addr sig.buffer[0], uint(len(sig.buffer)))
# Clear context with initial value
kv.init(addr hc.vtable)
result = (res == 1)

13
libp2p/crypto/ed25519/ed25519.nim
View File

@ -13,7 +13,8 @@
{.push raises: Defect.}
import constants, bearssl
import bearssl/rand
import constants
import nimcrypto/[hash, sha2]
# We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures.
import nimcrypto/utils as ncrutils
@ -21,7 +22,7 @@ import stew/[results, ctops]
export results
# This workaround needed because of some bugs in Nim Static[T].
export hash, sha2
export hash, sha2, rand
const
EdPrivateKeySize* = 64
@ -1644,14 +1645,14 @@ proc checkScalar*(scalar: openArray[byte]): uint32 =
c = -1
result = NEQ(z, 0'u32) and LT0(c)
proc random*(t: typedesc[EdPrivateKey], rng: var BrHmacDrbgContext): EdPrivateKey =
proc random*(t: typedesc[EdPrivateKey], rng: var HmacDrbgContext): EdPrivateKey =
## Generate new random ED25519 private key using the given random number generator
var
point: GeP3
pk: array[EdPublicKeySize, byte]
res: EdPrivateKey
brHmacDrbgGenerate(addr rng, addr res.data[0], 32)
hmacDrbgGenerate(rng, res.data.toOpenArray(0, 31))
var hh = sha512.digest(res.data.toOpenArray(0, 31))
hh.data[0] = hh.data[0] and 0xF8'u8
@ -1663,14 +1664,14 @@ proc random*(t: typedesc[EdPrivateKey], rng: var BrHmacDrbgContext): EdPrivateKe
res
proc random*(t: typedesc[EdKeyPair], rng: var BrHmacDrbgContext): EdKeyPair =
proc random*(t: typedesc[EdKeyPair], rng: var HmacDrbgContext): EdKeyPair =
## Generate new random ED25519 private and public keypair using OS specific
## CSPRNG.
var
point: GeP3
res: EdKeyPair
brHmacDrbgGenerate(addr rng, addr res.seckey.data[0], 32)
hmacDrbgGenerate(rng, res.seckey.data.toOpenArray(0, 31))
var hh = sha512.digest(res.seckey.data.toOpenArray(0, 31))
hh.data[0] = hh.data[0] and 0xF8'u8

29
libp2p/crypto/hkdf.nim
View File

@ -12,29 +12,22 @@
{.push raises: [Defect].}
import nimcrypto
import bearssl
import bearssl/[kdf, rand, hash]
type
BearHKDFContext {.importc: "br_hkdf_context", header: "bearssl_kdf.h".} = object
HKDFResult*[len: static int] = array[len, byte]
type HkdfResult*[len: static int] = array[len, byte]
proc br_hkdf_init(ctx: ptr BearHKDFContext; hashClass: ptr HashClass; salt: pointer; len: csize_t) {.importc: "br_hkdf_init", header: "bearssl_kdf.h", raises: [].}
proc br_hkdf_inject(ctx: ptr BearHKDFContext; ikm: pointer; len: csize_t) {.importc: "br_hkdf_inject", header: "bearssl_kdf.h", raises: [].}
proc br_hkdf_flip(ctx: ptr BearHKDFContext) {.importc: "br_hkdf_flip", header: "bearssl_kdf.h", raises: [].}
proc br_hkdf_produce(ctx: ptr BearHKDFContext; info: pointer; infoLen: csize_t; output: pointer; outputLen: csize_t) {.importc: "br_hkdf_produce", header: "bearssl_kdf.h", raises: [].}
proc hkdf*[T: sha256; len: static int](_: type[T]; salt, ikm, info: openArray[byte]; outputs: var openArray[HKDFResult[len]]) =
proc hkdf*[T: sha256; len: static int](_: type[T]; salt, ikm, info: openArray[byte]; outputs: var openArray[HkdfResult[len]]) =
var
ctx: BearHKDFContext
br_hkdf_init(
addr ctx, addr sha256Vtable,
ctx: HkdfContext
hkdfInit(
ctx, addr sha256Vtable,
if salt.len > 0: unsafeAddr salt[0] else: nil, csize_t(salt.len))
br_hkdf_inject(
addr ctx, if ikm.len > 0: unsafeAddr ikm[0] else: nil, csize_t(ikm.len))
br_hkdf_flip(addr ctx)
hkdfInject(
ctx, if ikm.len > 0: unsafeAddr ikm[0] else: nil, csize_t(ikm.len))
hkdfFlip(ctx)
for i in 0..outputs.high:
br_hkdf_produce(
addr ctx,
discard hkdfProduce(
ctx,
if info.len > 0: unsafeAddr info[0]
else: nil, csize_t(info.len),
addr outputs[i][0], csize_t(outputs[i].len))

146
libp2p/crypto/rsa.nim
View File

@ -14,7 +14,7 @@
## Copyright(C) 2018 Thomas Pornin <pornin@bolet.org>.
{.push raises: Defect.}
import bearssl
import bearssl/[rsa, rand, hash]
import minasn1
import stew/[results, ctops]
# We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures.
@ -33,41 +33,41 @@ const
## Default RSA key size in bits.
RsaOidSha1* = [
0x05'u8, 0x2B'u8, 0x0E'u8, 0x03'u8, 0x02'u8, 0x1A'u8
byte 0x05, 0x2B, 0x0E, 0x03, 0x02, 0x1A
]
## RSA PKCS#1.5 SHA-1 hash object identifier.
RsaOidSha224* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8,
0x02'u8, 0x04'u8
byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02, 0x04
]
## RSA PKCS#1.5 SHA-224 hash object identifier.
RsaOidSha256* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8,
0x02'u8, 0x01'u8
byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02, 0x01
]
## RSA PKCS#1.5 SHA-256 hash object identifier.
RsaOidSha384* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8,
0x02'u8, 0x02'u8
byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02, 0x02
]
## RSA PKCS#1.5 SHA-384 hash object identifier.
RsaOidSha512* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8,
0x02'u8, 0x03'u8
byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02, 0x03
]
## RSA PKCS#1.5 SHA-512 hash object identifier.
type
RsaPrivateKey* = ref object
buffer*: seq[byte]
seck*: BrRsaPrivateKey
pubk*: BrRsaPublicKey
pexp*: ptr char
pexplen*: int
seck*: rsa.RsaPrivateKey
pubk*: rsa.RsaPublicKey
pexp*: ptr byte
pexplen*: uint
RsaPublicKey* = ref object
buffer*: seq[byte]
key*: BrRsaPublicKey
key*: rsa.RsaPublicKey
RsaKeyPair* = RsaPrivateKey
@ -99,8 +99,8 @@ template getFinish(bs, os, ls: untyped): untyped =
var eo = -1
if p >= s:
let so = cast[int](p - s)
if so + ls <= len(bs):
eo = so + ls - 1
if so + int(ls) <= len(bs):
eo = so + int(ls) - 1
eo
template getArray*(bs, os, ls: untyped): untyped =
@ -109,12 +109,12 @@ template getArray*(bs, os, ls: untyped): untyped =
template trimZeroes(b: seq[byte], pt, ptlen: untyped) =
var length = ptlen
for i in 0..<length:
if pt[] != cast[char](0x00'u8):
if pt[] != byte(0x00):
break
pt = cast[ptr char](cast[uint](pt) + 1)
pt = cast[ptr byte](cast[uint](pt) + 1)
ptlen -= 1
proc random*[T: RsaKP](t: typedesc[T], rng: var BrHmacDrbgContext,
proc random*[T: RsaKP](t: typedesc[T], rng: var HmacDrbgContext,
bits = DefaultKeySize,
pubexp = DefaultPublicExponent): RsaResult[T] =
## Generate new random RSA private key using BearSSL's HMAC-SHA256-DRBG
@ -129,14 +129,14 @@ proc random*[T: RsaKP](t: typedesc[T], rng: var BrHmacDrbgContext,
let
sko = 0
pko = brRsaPrivateKeyBufferSize(bits)
eko = pko + brRsaPublicKeyBufferSize(bits)
pko = rsaKbufPrivSize(bits)
eko = pko + rsaKbufPubSize(bits)
length = eko + ((bits + 7) shr 3)
let res = new T
res.buffer = newSeq[byte](length)
var keygen = brRsaKeygenGetDefault()
var keygen = rsaKeygenGetDefault()
if keygen(addr rng.vtable,
addr res.seck, addr res.buffer[sko],
@ -145,12 +145,12 @@ proc random*[T: RsaKP](t: typedesc[T], rng: var BrHmacDrbgContext,
return err(RsaGenError)
let
compute = brRsaComputePrivexpGetDefault()
compute = rsaComputePrivexpGetDefault()
computed = compute(addr res.buffer[eko], addr res.seck, pubexp)
if computed == 0:
return err(RsaGenError)
res.pexp = cast[ptr char](addr res.buffer[eko])
res.pexp = addr res.buffer[eko]
res.pexplen = computed
trimZeroes(res.buffer, res.seck.p, res.seck.plen)
@ -169,12 +169,12 @@ proc copy*[T: RsaPKI](key: T): T =
doAssert(not isNil(key))
when T is RsaPrivateKey:
if len(key.buffer) > 0:
let length = key.seck.plen + key.seck.qlen + key.seck.dplen +
key.seck.dqlen + key.seck.iqlen + key.pubk.nlen +
key.pubk.elen + key.pexplen
let length = key.seck.plen.uint + key.seck.qlen.uint + key.seck.dplen.uint +
key.seck.dqlen.uint + key.seck.iqlen.uint + key.pubk.nlen.uint +
key.pubk.elen.uint + key.pexplen.uint
result = new RsaPrivateKey
result.buffer = newSeq[byte](length)
let po = 0
let po: uint = 0
let qo = po + key.seck.plen
let dpo = qo + key.seck.qlen
let dqo = dpo + key.seck.dplen
@ -190,14 +190,14 @@ proc copy*[T: RsaPKI](key: T): T =
copyMem(addr result.buffer[no], key.pubk.n, key.pubk.nlen)
copyMem(addr result.buffer[eo], key.pubk.e, key.pubk.elen)
copyMem(addr result.buffer[peo], key.pexp, key.pexplen)
result.seck.p = cast[ptr char](addr result.buffer[po])
result.seck.q = cast[ptr char](addr result.buffer[qo])
result.seck.dp = cast[ptr char](addr result.buffer[dpo])
result.seck.dq = cast[ptr char](addr result.buffer[dqo])
result.seck.iq = cast[ptr char](addr result.buffer[iqo])
result.pubk.n = cast[ptr char](addr result.buffer[no])
result.pubk.e = cast[ptr char](addr result.buffer[eo])
result.pexp = cast[ptr char](addr result.buffer[peo])
result.seck.p = addr result.buffer[po]
result.seck.q = addr result.buffer[qo]
result.seck.dp = addr result.buffer[dpo]
result.seck.dq = addr result.buffer[dqo]
result.seck.iq = addr result.buffer[iqo]
result.pubk.n = addr result.buffer[no]
result.pubk.e = addr result.buffer[eo]
result.pexp = addr result.buffer[peo]
result.seck.plen = key.seck.plen
result.seck.qlen = key.seck.qlen
result.seck.dplen = key.seck.dplen
@ -231,8 +231,8 @@ proc getPublicKey*(key: RsaPrivateKey): RsaPublicKey =
let length = key.pubk.nlen + key.pubk.elen
result = new RsaPublicKey
result.buffer = newSeq[byte](length)
result.key.n = cast[ptr char](addr result.buffer[0])
result.key.e = cast[ptr char](addr result.buffer[key.pubk.nlen])
result.key.n = addr result.buffer[0]
result.key.e = addr result.buffer[key.pubk.nlen]
copyMem(addr result.buffer[0], cast[pointer](key.pubk.n), key.pubk.nlen)
copyMem(addr result.buffer[key.pubk.nlen], cast[pointer](key.pubk.e),
key.pubk.elen)
@ -472,22 +472,22 @@ proc init*(key: var RsaPrivateKey, data: openArray[byte]): Result[void, Asn1Erro
len(rawdp) > 0 and len(rawdq) > 0 and len(rawiq) > 0:
key = new RsaPrivateKey
key.buffer = @data
key.pubk.n = cast[ptr char](addr key.buffer[rawn.offset])
key.pubk.e = cast[ptr char](addr key.buffer[rawpube.offset])
key.seck.p = cast[ptr char](addr key.buffer[rawp.offset])
key.seck.q = cast[ptr char](addr key.buffer[rawq.offset])
key.seck.dp = cast[ptr char](addr key.buffer[rawdp.offset])
key.seck.dq = cast[ptr char](addr key.buffer[rawdq.offset])
key.seck.iq = cast[ptr char](addr key.buffer[rawiq.offset])
key.pexp = cast[ptr char](addr key.buffer[rawprie.offset])
key.pubk.nlen = len(rawn)
key.pubk.elen = len(rawpube)
key.seck.plen = len(rawp)
key.seck.qlen = len(rawq)
key.seck.dplen = len(rawdp)
key.seck.dqlen = len(rawdq)
key.seck.iqlen = len(rawiq)
key.pexplen = len(rawprie)
key.pubk.n = addr key.buffer[rawn.offset]
key.pubk.e = addr key.buffer[rawpube.offset]
key.seck.p = addr key.buffer[rawp.offset]
key.seck.q = addr key.buffer[rawq.offset]
key.seck.dp = addr key.buffer[rawdp.offset]
key.seck.dq = addr key.buffer[rawdq.offset]
key.seck.iq = addr key.buffer[rawiq.offset]
key.pexp = addr key.buffer[rawprie.offset]
key.pubk.nlen = uint(len(rawn))
key.pubk.elen = uint(len(rawpube))
key.seck.plen = uint(len(rawp))
key.seck.qlen = uint(len(rawq))
key.seck.dplen = uint(len(rawdp))
key.seck.dqlen = uint(len(rawdq))
key.seck.iqlen = uint(len(rawiq))
key.pexplen = uint(len(rawprie))
key.seck.nBitlen = cast[uint32](len(rawn) shl 3)
ok()
else:
@ -554,10 +554,10 @@ proc init*(key: var RsaPublicKey, data: openArray[byte]): Result[void, Asn1Error
if len(rawn) >= (MinKeySize shr 3) and len(rawe) > 0:
key = new RsaPublicKey
key.buffer = @data
key.key.n = cast[ptr char](addr key.buffer[rawn.offset])
key.key.e = cast[ptr char](addr key.buffer[rawe.offset])
key.key.nlen = len(rawn)
key.key.elen = len(rawe)
key.key.n = addr key.buffer[rawn.offset]
key.key.e = addr key.buffer[rawe.offset]
key.key.nlen = uint(len(rawn))
key.key.elen = uint(len(rawe))
ok()
else:
err(Asn1Error.Incorrect)
@ -749,22 +749,22 @@ proc sign*[T: byte|char](key: RsaPrivateKey,
if isNil(key):
return err(RsaKeyIncorrectError)
var hc: BrHashCompatContext
var hc: HashCompatContext
var hash: array[32, byte]
let impl = BrRsaPkcs1SignGetDefault()
let impl = rsaPkcs1SignGetDefault()
var res = new RsaSignature
res.buffer = newSeq[byte]((key.seck.nBitlen + 7) shr 3)
var kv = addr sha256Vtable
kv.init(addr hc.vtable)
if len(message) > 0:
kv.update(addr hc.vtable, unsafeAddr message[0], len(message))
kv.update(addr hc.vtable, unsafeAddr message[0], uint(len(message)))
else:
kv.update(addr hc.vtable, nil, 0)
kv.output(addr hc.vtable, addr hash[0])
kv.out(addr hc.vtable, addr hash[0])
var oid = RsaOidSha256
let implRes = impl(cast[ptr char](addr oid[0]),
cast[ptr char](addr hash[0]), len(hash),
addr key.seck, cast[ptr char](addr res.buffer[0]))
let implRes = impl(addr oid[0],
addr hash[0], uint(len(hash)),
addr key.seck, addr res.buffer[0])
if implRes == 0:
err(RsaSignatureError)
else:
@ -779,20 +779,20 @@ proc verify*[T: byte|char](sig: RsaSignature, message: openArray[T],
## verification failed.
doAssert((not isNil(sig)) and (not isNil(pubkey)))
if len(sig.buffer) > 0:
var hc: BrHashCompatContext
var hc: HashCompatContext
var hash: array[32, byte]
var check: array[32, byte]
var impl = BrRsaPkcs1VrfyGetDefault()
var impl = rsaPkcs1VrfyGetDefault()
var kv = addr sha256Vtable
kv.init(addr hc.vtable)
if len(message) > 0:
kv.update(addr hc.vtable, unsafeAddr message[0], len(message))
kv.update(addr hc.vtable, unsafeAddr message[0], uint(len(message)))
else:
kv.update(addr hc.vtable, nil, 0)
kv.output(addr hc.vtable, addr hash[0])
kv.out(addr hc.vtable, addr hash[0])
var oid = RsaOidSha256
let res = impl(cast[ptr char](addr sig.buffer[0]), len(sig.buffer),
cast[ptr char](addr oid[0]),
len(check), addr pubkey.key, cast[ptr char](addr check[0]))
let res = impl(addr sig.buffer[0], uint(len(sig.buffer)),
addr oid[0],
uint(len(check)), addr pubkey.key, addr check[0])
if res == 1:
result = equalMem(addr check[0], addr hash[0], len(hash))

18
libp2p/crypto/secp.nim
View File

@ -9,12 +9,13 @@
{.push raises: [Defect].}
import bearssl/rand
import
secp256k1, bearssl,
secp256k1,
stew/[byteutils, results],
nimcrypto/[hash, sha2]
export sha2, results
export sha2, results, rand
const
SkRawPrivateKeySize* = 256 div 8
@ -34,17 +35,18 @@ type
template pubkey*(v: SkKeyPair): SkPublicKey = SkPublicKey(secp256k1.SkKeyPair(v).pubkey)
template seckey*(v: SkKeyPair): SkPrivateKey = SkPrivateKey(secp256k1.SkKeyPair(v).seckey)
proc random*(t: typedesc[SkPrivateKey], rng: var BrHmacDrbgContext): SkPrivateKey =
let rngPtr = unsafeAddr rng # doesn't escape
proc random*(t: typedesc[SkPrivateKey], rng: var HmacDrbgContext): SkPrivateKey =
#TODO is there a better way?
var rngPtr = addr rng
proc callRng(data: var openArray[byte]) =
brHmacDrbgGenerate(rngPtr[], data)
hmacDrbgGenerate(rngPtr[], data)
SkPrivateKey(SkSecretKey.random(callRng))
proc random*(t: typedesc[SkKeyPair], rng: var BrHmacDrbgContext): SkKeyPair =
let rngPtr = unsafeAddr rng # doesn't escape
proc random*(t: typedesc[SkKeyPair], rng: var HmacDrbgContext): SkKeyPair =
let rngPtr = addr rng
proc callRng(data: var openArray[byte]) =
brHmacDrbgGenerate(rngPtr[], data)
hmacDrbgGenerate(rngPtr[], data)
SkKeyPair(secp256k1.SkKeyPair.random(callRng))

11
libp2p/protocols/ping.nim
View File

@ -9,7 +9,8 @@
{.push raises: [Defect].}
import chronos, chronicles, bearssl
import chronos, chronicles
import bearssl/[rand, hash]
import ../protobuf/minprotobuf,
../peerinfo,
../stream/connection,
@ -19,6 +20,8 @@ import ../protobuf/minprotobuf,
../protocols/protocol,
../errors
export chronicles, rand, connection
logScope:
topics = "libp2p ping"
@ -37,9 +40,9 @@ type
Ping* = ref object of LPProtocol
pingHandler*: PingHandler
rng: ref BrHmacDrbgContext
rng: ref HmacDrbgContext
proc new*(T: typedesc[Ping], handler: PingHandler = nil, rng: ref BrHmacDrbgContext = newRng()): T =
proc new*(T: typedesc[Ping], handler: PingHandler = nil, rng: ref HmacDrbgContext = newRng()): T =
let ping = Ping(pinghandler: handler, rng: rng)
ping.init()
ping
@ -76,7 +79,7 @@ proc ping*(
randomBuf: array[PingSize, byte]
resultBuf: array[PingSize, byte]
p.rng[].brHmacDrbgGenerate(randomBuf)
hmacDrbgGenerate(p.rng[], randomBuf)
let startTime = Moment.now()

4
libp2p/protocols/pubsub/floodsub.nim
View File

@ -10,7 +10,7 @@
{.push raises: [Defect].}
import std/[sequtils, sets, hashes, tables]
import chronos, chronicles, metrics, bearssl
import chronos, chronicles, metrics
import ./pubsub,
./pubsubpeer,
./timedcache,
@ -226,6 +226,6 @@ method initPubSub*(f: FloodSub)
procCall PubSub(f).initPubSub()
f.seen = TimedCache[MessageID].init(2.minutes)
f.seenSalt = newSeqUninitialized[byte](sizeof(Hash))
brHmacDrbgGenerate(f.rng[], f.seenSalt)
hmacDrbgGenerate(f.rng[], f.seenSalt)
f.init()

6
libp2p/protocols/pubsub/pubsub.nim
View File

@ -10,7 +10,7 @@
{.push raises: [Defect].}
import std/[tables, sequtils, sets, strutils]
import chronos, chronicles, metrics, bearssl
import chronos, chronicles, metrics
import ./errors as pubsub_errors,
./pubsubpeer,
./rpc/[message, messages, protobuf],
@ -114,7 +114,7 @@ type
## lead to issues, from descoring to connection drops
##
## defaults to 1mB
rng*: ref BrHmacDrbgContext
rng*: ref HmacDrbgContext
knownTopics*: HashSet[string]
@ -553,7 +553,7 @@ proc init*[PubParams: object | bool](
msgIdProvider: MsgIdProvider = defaultMsgIdProvider,
subscriptionValidator: SubscriptionValidator = nil,
maxMessageSize: int = 1024 * 1024,
rng: ref BrHmacDrbgContext = newRng(),
rng: ref HmacDrbgContext = newRng(),
parameters: PubParams = false): P
{.raises: [Defect, InitializationError].} =
let pubsub =

8
libp2p/protocols/secure/noise.nim
View File

@ -12,7 +12,7 @@
import std/[oids, strformat]
import chronos
import chronicles
import bearssl
import bearssl/[rand, hash]
import stew/[endians2, byteutils]
import nimcrypto/[utils, sha2, hmac]
import ../../stream/[connection, streamseq]
@ -78,7 +78,7 @@ type
rs: Curve25519Key
Noise* = ref object of Secure
rng: ref BrHmacDrbgContext
rng: ref HmacDrbgContext
localPrivateKey: PrivateKey
localPublicKey: seq[byte]
noiseKeys: KeyPair
@ -106,7 +106,7 @@ func shortLog*(conn: NoiseConnection): auto =
chronicles.formatIt(NoiseConnection): shortLog(it)
proc genKeyPair(rng: var BrHmacDrbgContext): KeyPair =
proc genKeyPair(rng: var HmacDrbgContext): KeyPair =
result.privateKey = Curve25519Key.random(rng)
result.publicKey = result.privateKey.public()
@ -602,7 +602,7 @@ method init*(p: Noise) {.gcsafe.} =
proc new*(
T: typedesc[Noise],
rng: ref BrHmacDrbgContext,
rng: ref HmacDrbgContext,
privateKey: PrivateKey,
outgoing: bool = true,
commonPrologue: seq[byte] = @[]): T =

9
libp2p/protocols/secure/secio.nim
View File

@ -10,7 +10,8 @@
{.push raises: [Defect].}
import std/[oids, strformat]
import chronos, chronicles, stew/endians2, bearssl
import bearssl/rand
import chronos, chronicles, stew/endians2
import nimcrypto/[hmac, sha2, sha, hash, rijndael, twofish, bcmode]
import secure,
../../stream/connection,
@ -37,7 +38,7 @@ const
type
Secio* = ref object of Secure
rng: ref BrHmacDrbgContext
rng: ref HmacDrbgContext
localPrivateKey: PrivateKey
localPublicKey: PublicKey
remotePublicKey: PublicKey
@ -304,7 +305,7 @@ method handshake*(s: Secio, conn: Connection, initiator: bool = false): Future[S
localPeerId: PeerId
localBytesPubkey = s.localPublicKey.getBytes().tryGet()
brHmacDrbgGenerate(s.rng[], localNonce)
hmacDrbgGenerate(s.rng[], localNonce)
var request = createProposal(localNonce,
localBytesPubkey,
@ -428,7 +429,7 @@ method init(s: Secio) {.gcsafe.} =
proc new*(
T: typedesc[Secio],
rng: ref BrHmacDrbgContext,
rng: ref HmacDrbgContext,
localPrivateKey: PrivateKey): T =
let pkRes = localPrivateKey.getPublicKey()
if pkRes.isErr:

2
libp2p/protocols/secure/secure.nim
View File

@ -10,7 +10,7 @@
{.push raises: [Defect].}
import std/[strformat]
import chronos, chronicles, bearssl
import chronos, chronicles
import ../protocol,
../../stream/streamseq,
../../stream/connection,

8
tests/helpers.nim
View File

@ -1,6 +1,6 @@
{.push raises: [Defect].}
import chronos, bearssl
import chronos
import ../libp2p/transports/tcptransport
import ../libp2p/stream/bufferstream
@ -58,11 +58,11 @@ template checkTrackers*() =
except: discard
type RngWrap = object
rng: ref BrHmacDrbgContext
rng: ref HmacDrbgContext
var rngVar: RngWrap
proc getRng(): ref BrHmacDrbgContext =
proc getRng(): ref HmacDrbgContext =
# TODO if `rngVar` is a threadvar like it should be, there are random and
# spurious compile failures on mac - this is not gcsafe but for the
# purpose of the tests, it's ok as long as we only use a single thread
@ -71,7 +71,7 @@ proc getRng(): ref BrHmacDrbgContext =
rngVar.rng = newRng()
rngVar.rng
template rng*(): ref BrHmacDrbgContext =
template rng*(): ref HmacDrbgContext =
getRng()
type

1
tests/pubsub/testgossipinternal.nim
View File

@ -3,7 +3,6 @@ include ../../libp2p/protocols/pubsub/gossipsub
{.used.}
import options
import bearssl
import stew/byteutils
import ../../libp2p/builders
import ../../libp2p/errors

2
tests/pubsub/testmcache.nim
View File

@ -1,6 +1,6 @@
{.used.}
import unittest2, options, sets, sequtils, bearssl
import unittest2, options, sets, sequtils
import stew/byteutils
import ../../libp2p/[peerid,
crypto/crypto,

6
tests/testcrypto.nim
View File

@ -10,9 +10,9 @@
## Test vectors was made using Go implementation
## https://github.com/libp2p/go-libp2p-crypto/blob/master/key.go
import unittest2
import bearssl/hash
import nimcrypto/[utils, sysrand]
import ../libp2p/crypto/[crypto, chacha20poly1305, curve25519, hkdf]
import bearssl
when defined(nimHasUsed): {.used.}
@ -560,7 +560,7 @@ suite "Key interface test suite":
test "shuffle":
var cards = ["Ace", "King", "Queen", "Jack", "Ten"]
var rng = (ref BrHmacDrbgContext)()
brHmacDrbgInit(addr rng[], addr sha256Vtable, nil, 0)
var rng = (ref HmacDrbgContext)()
hmacDrbgInit(rng[], addr sha256Vtable, nil, 0)
rng.shuffle(cards)
check cards == ["King", "Ten", "Ace", "Queen", "Jack"]

2
tests/testidentify.nim
View File

@ -1,4 +1,4 @@
import options, bearssl
import options
import chronos, strutils, sequtils, sets, algorithm
import ../libp2p/[protocols/identify,
multiaddress,

4
tests/testnoise.nim
View File

@ -9,7 +9,7 @@
{.used.}
import tables, bearssl
import tables
import chronos, stew/byteutils
import chronicles
import ../libp2p/[switch,
@ -214,7 +214,7 @@ suite "Noise":
readTask = newFuture[void]()
var hugePayload = newSeq[byte](0xFFFFF)
brHmacDrbgGenerate(rng[], hugePayload)
hmacDrbgGenerate(rng[], hugePayload)
trace "Sending huge payload", size = hugePayload.len
let

2
tests/testpeerinfo.nim
View File

@ -1,6 +1,6 @@
{.used.}
import options, bearssl
import options
import chronos, stew/byteutils
import ../libp2p/crypto/crypto,
../libp2p/multicodec,

2
tests/testping.nim
View File

@ -1,4 +1,4 @@
import options, bearssl
import options
import chronos, strutils
import ../libp2p/[protocols/identify,
protocols/ping,

2
tests/testrelay.nim
View File

@ -1,6 +1,6 @@
{.used.}
import options, bearssl, chronos
import options, chronos
import stew/byteutils
import ../libp2p/[protocols/relay,
multiaddress,

2
tests/testsecp256k1.nim
View File

@ -6,7 +6,7 @@
## at your option.
## This file may not be copied, modified, or distributed except according to
## those terms.
import unittest2, bearssl
import unittest2
import ../libp2p/crypto/[crypto, secp]
import nimcrypto/utils