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Remove Br prefix from BearSSL (#728) 

ref status-im/nim-bearssl#27
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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
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@ -1,5 +1,5 @@
asynctest;https://github.com/markspanbroek/asynctest@#5347c59b4b057443a014722aa40800cd8bb95c69 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 chronicles;https://github.com/status-im/nim-chronicles@#2a2681b60289aaf7895b7056f22616081eb1a882
chronos;https://github.com/status-im/nim-chronos@#875d7d8e6ef0803ae1c331dbf76b1981b0caeb15 chronos;https://github.com/status-im/nim-chronos@#875d7d8e6ef0803ae1c331dbf76b1981b0caeb15
dnsclient;https://github.com/ba0f3/dnsclient.nim@#fbb76f8af8a33ab818184a7d4406d9fee20993be 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() let line = stdin.readLine()
discard waitFor transp.write(line & "\r\n") 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 transp = fromPipe(rfd)
let seckey = PrivateKey.random(RSA, rng[]).get() 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!".} {.fatal: "Please, compile this program with the --threads:on option!".}
import import
strformat, strutils, bearssl, strformat, strutils,
stew/byteutils, stew/byteutils,
chronos, chronos,
../libp2p ../libp2p

3
examples/helloworld.nim
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@ -1,4 +1,3 @@
import bearssl
import chronos # an efficient library for async import chronos # an efficient library for async
import stew/byteutils # various utils import stew/byteutils # various utils
import ../libp2p # when installed through nimble, just use `import libp2p` 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 # 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 var switch = SwitchBuilder
.new() .new()
.withRng(rng) # Give the application RNG .withRng(rng) # Give the application RNG

4
examples/tutorial_1_connect.md
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@ -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: Let's create a `part1.nim`, and import our dependencies:
```nim ```nim
import bearssl
import chronos import chronos
import libp2p import libp2p
import libp2p/protocols/ping 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` [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: 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 ```nim
proc createSwitch(ma: MultiAddress, rng: ref BrHmacDrbgContext): Switch = proc createSwitch(ma: MultiAddress, rng: ref HmacDrbgContext): Switch =
var switch = SwitchBuilder var switch = SwitchBuilder
.new() .new()
.withRng(rng) # Give the application RNG .withRng(rng) # Give the application RNG

1
examples/tutorial_2_customproto.md
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@ -5,7 +5,6 @@ We'll now look at how to create a custom protocol inside the libp2p
# Custom protocol in libp2p # Custom protocol in libp2p
Let's create a `part2.nim`, and import our dependencies: Let's create a `part2.nim`, and import our dependencies:
```nim ```nim
import bearssl
import chronos import chronos
import stew/byteutils import stew/byteutils

4
libp2p.nim
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@ -30,11 +30,9 @@ import
crypto/crypto, crypto/crypto,
protocols/pubsub] protocols/pubsub]
import bearssl
export export
minprotobuf, switch, peerid, peerinfo, minprotobuf, switch, peerid, peerinfo,
connection, multiaddress, crypto, lpstream, connection, multiaddress, crypto, lpstream,
bufferstream, bearssl, muxer, mplex, transport, bufferstream, muxer, mplex, transport,
tcptransport, noise, errors, cid, multihash, tcptransport, noise, errors, cid, multihash,
multicodec, builders, pubsub multicodec, builders, pubsub

6
libp2p/builders.nim
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@ -10,7 +10,7 @@
{.push raises: [Defect].} {.push raises: [Defect].}
import import
options, tables, chronos, chronicles, bearssl, options, tables, chronos, chronicles,
switch, peerid, peerinfo, stream/connection, multiaddress, switch, peerid, peerinfo, stream/connection, multiaddress,
crypto/crypto, transports/[transport, tcptransport], crypto/crypto, transports/[transport, tcptransport],
muxers/[muxer, mplex/mplex], muxers/[muxer, mplex/mplex],
@ -39,7 +39,7 @@ type
secureManagers: seq[SecureProtocol] secureManagers: seq[SecureProtocol]
mplexOpts: MplexOpts mplexOpts: MplexOpts
transports: seq[TransportProvider] transports: seq[TransportProvider]
rng: ref BrHmacDrbgContext rng: ref HmacDrbgContext
maxConnections: int maxConnections: int
maxIn: int maxIn: int
sendSignedPeerRecord: bool sendSignedPeerRecord: bool
@ -116,7 +116,7 @@ proc withTransport*(b: SwitchBuilder, prov: TransportProvider): SwitchBuilder =
proc withTcpTransport*(b: SwitchBuilder, flags: set[ServerFlags] = {}): SwitchBuilder = proc withTcpTransport*(b: SwitchBuilder, flags: set[ServerFlags] = {}): SwitchBuilder =
b.withTransport(proc(upgr: Upgrade): Transport = TcpTransport.new(flags, upgr)) 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.rng = rng
b b

27
libp2p/crypto/chacha20poly1305.nim
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@ -17,17 +17,10 @@
{.push raises: [Defect].} {.push raises: [Defect].}
import bearssl import bearssl/blockx
from stew/assign2 import assign from stew/assign2 import assign
from stew/ranges/ptr_arith import baseAddr 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 const
ChaChaPolyKeySize = 32 ChaChaPolyKeySize = 32
ChaChaPolyNonceSize = 12 ChaChaPolyNonceSize = 12
@ -67,15 +60,16 @@ proc encrypt*(_: type[ChaChaPoly],
else: else:
nil nil
ourPoly1305CtmulRun( poly1305CtmulRun(
unsafeAddr key[0], unsafeAddr key[0],
unsafeAddr nonce[0], unsafeAddr nonce[0],
baseAddr(data), baseAddr(data),
data.len, uint(data.len),
ad, ad,
aad.len, uint(aad.len),
baseAddr(tag), baseAddr(tag),
chacha20CtRun, # cast is required to workaround https://github.com/nim-lang/Nim/issues/13905
cast[Chacha20Run](chacha20CtRun),
#[encrypt]# 1.cint) #[encrypt]# 1.cint)
proc decrypt*(_: type[ChaChaPoly], proc decrypt*(_: type[ChaChaPoly],
@ -90,13 +84,14 @@ proc decrypt*(_: type[ChaChaPoly],
else: else:
nil nil
ourPoly1305CtmulRun( poly1305CtmulRun(
unsafeAddr key[0], unsafeAddr key[0],
unsafeAddr nonce[0], unsafeAddr nonce[0],
baseAddr(data), baseAddr(data),
data.len, uint(data.len),
ad, ad,
aad.len, uint(aad.len),
baseAddr(tag), baseAddr(tag),
chacha20CtRun, # cast is required to workaround https://github.com/nim-lang/Nim/issues/13905
cast[Chacha20Run](chacha20CtRun),
#[decrypt]# 0.cint) #[decrypt]# 0.cint)

30
libp2p/crypto/crypto.nim
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@ -69,7 +69,7 @@ when supported(PKScheme.Secp256k1):
# We are still importing `ecnist` because, it is used for SECIO handshake, # 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. # 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 ../protobuf/minprotobuf, ../vbuffer, ../multihash, ../multicodec
import nimcrypto/[rijndael, twofish, sha2, hash, hmac] import nimcrypto/[rijndael, twofish, sha2, hash, hmac]
# We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures. # We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures.
@ -79,7 +79,7 @@ import stew/results
export results export results
# This is workaround for Nim's `import` bug # This is workaround for Nim's `import` bug
export rijndael, twofish, sha2, hash, hmac, ncrutils export rijndael, twofish, sha2, hash, hmac, ncrutils, rand
type type
DigestSheme* = enum DigestSheme* = enum
@ -158,26 +158,28 @@ type
template orError*(exp: untyped, err: untyped): untyped = template orError*(exp: untyped, err: untyped): untyped =
(exp.mapErr do (_: auto) -> auto: err) (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 # You should only create one instance of the RNG per application / library
# Ref is used so that it can be shared between components # Ref is used so that it can be shared between components
# TODO consider moving to bearssl # TODO consider moving to bearssl
var seeder = brPrngSeederSystem(nil) var seeder = prngSeederSystem(nil)
if seeder == nil: if seeder == nil:
return nil return nil
var rng = (ref BrHmacDrbgContext)() var rng = (ref HmacDrbgContext)()
brHmacDrbgInit(addr rng[], addr sha256Vtable, nil, 0) hmacDrbgInit(rng[], addr sha256Vtable, nil, 0)
if seeder(addr rng.vtable) == 0: if seeder(addr rng.vtable) == 0:
return nil return nil
rng rng
proc shuffle*[T]( proc shuffle*[T](
rng: ref BrHmacDrbgContext, rng: ref HmacDrbgContext,
x: var openArray[T]) = x: var openArray[T]) =
if x.len == 0: return
var randValues = newSeqUninitialized[byte](len(x) * 2) var randValues = newSeqUninitialized[byte](len(x) * 2)
brHmacDrbgGenerate(rng[], randValues) hmacDrbgGenerate(rng[], randValues)
for i in countdown(x.high, 1): for i in countdown(x.high, 1):
let let
@ -186,7 +188,7 @@ proc shuffle*[T](
swap(x[i], x[y]) swap(x[i], x[y])
proc random*(T: typedesc[PrivateKey], scheme: PKScheme, proc random*(T: typedesc[PrivateKey], scheme: PKScheme,
rng: var BrHmacDrbgContext, rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[PrivateKey] = bits = RsaDefaultKeySize): CryptoResult[PrivateKey] =
## Generate random private key for scheme ``scheme``. ## Generate random private key for scheme ``scheme``.
## ##
@ -218,7 +220,7 @@ proc random*(T: typedesc[PrivateKey], scheme: PKScheme,
else: else:
err(SchemeError) err(SchemeError)
proc random*(T: typedesc[PrivateKey], rng: var BrHmacDrbgContext, proc random*(T: typedesc[PrivateKey], rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[PrivateKey] = bits = RsaDefaultKeySize): CryptoResult[PrivateKey] =
## Generate random private key using default public-key cryptography scheme. ## Generate random private key using default public-key cryptography scheme.
## ##
@ -242,7 +244,7 @@ proc random*(T: typedesc[PrivateKey], rng: var BrHmacDrbgContext,
err(SchemeError) err(SchemeError)
proc random*(T: typedesc[KeyPair], scheme: PKScheme, proc random*(T: typedesc[KeyPair], scheme: PKScheme,
rng: var BrHmacDrbgContext, rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[KeyPair] = bits = RsaDefaultKeySize): CryptoResult[KeyPair] =
## Generate random key pair for scheme ``scheme``. ## Generate random key pair for scheme ``scheme``.
## ##
@ -282,7 +284,7 @@ proc random*(T: typedesc[KeyPair], scheme: PKScheme,
else: else:
err(SchemeError) err(SchemeError)
proc random*(T: typedesc[KeyPair], rng: var BrHmacDrbgContext, proc random*(T: typedesc[KeyPair], rng: var HmacDrbgContext,
bits = RsaDefaultKeySize): CryptoResult[KeyPair] = bits = RsaDefaultKeySize): CryptoResult[KeyPair] =
## Generate random private pair of keys using default public-key cryptography ## Generate random private pair of keys using default public-key cryptography
## scheme. ## scheme.
@ -870,7 +872,7 @@ proc mac*(secret: Secret, id: int): seq[byte] {.inline.} =
proc ephemeral*( proc ephemeral*(
scheme: ECDHEScheme, scheme: ECDHEScheme,
rng: var BrHmacDrbgContext): CryptoResult[EcKeyPair] = rng: var HmacDrbgContext): CryptoResult[EcKeyPair] =
## Generate ephemeral keys used to perform ECDHE. ## Generate ephemeral keys used to perform ECDHE.
var keypair: EcKeyPair var keypair: EcKeyPair
if scheme == Secp256r1: if scheme == Secp256r1:
@ -882,7 +884,7 @@ proc ephemeral*(
ok(keypair) ok(keypair)
proc ephemeral*( 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. ## Generate ephemeral keys used to perform ECDHE using string encoding.
## ##
## Currently supported encoding strings are P-256, P-384, P-521, if 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].} {.push raises: [Defect].}
import bearssl import bearssl/[ec, rand, hash]
import stew/results import stew/results
from stew/assign2 import assign from stew/assign2 import assign
export results export results
@ -46,7 +46,7 @@ proc byteswap(buf: var Curve25519Key) {.inline.} =
buf[31 - i] = x buf[31 - i] = x
proc mul*(_: type[Curve25519], point: var Curve25519Key, multiplier: Curve25519Key) = proc mul*(_: type[Curve25519], point: var Curve25519Key, multiplier: Curve25519Key) =
let defaultBrEc = brEcGetDefault() let defaultBrEc = ecGetDefault()
# multiplier needs to be big-endian # multiplier needs to be big-endian
var var
@ -54,15 +54,15 @@ proc mul*(_: type[Curve25519], point: var Curve25519Key, multiplier: Curve25519K
multiplierBs.byteswap() multiplierBs.byteswap()
let let
res = defaultBrEc.mul( res = defaultBrEc.mul(
cast[pcuchar](addr point[0]), addr point[0],
Curve25519KeySize, Curve25519KeySize,
cast[pcuchar](addr multiplierBs[0]), addr multiplierBs[0],
Curve25519KeySize, Curve25519KeySize,
EC_curve25519) EC_curve25519)
assert res == 1 assert res == 1
proc mulgen(_: type[Curve25519], dst: var Curve25519Key, point: Curve25519Key) = proc mulgen(_: type[Curve25519], dst: var Curve25519Key, point: Curve25519Key) =
let defaultBrEc = brEcGetDefault() let defaultBrEc = ecGetDefault()
var var
rpoint = point rpoint = point
@ -70,8 +70,8 @@ proc mulgen(_: type[Curve25519], dst: var Curve25519Key, point: Curve25519Key) =
let let
size = defaultBrEc.mulgen( size = defaultBrEc.mulgen(
cast[pcuchar](addr dst[0]), addr dst[0],
cast[pcuchar](addr rpoint[0]), addr rpoint[0],
Curve25519KeySize, Curve25519KeySize,
EC_curve25519) EC_curve25519)
@ -80,10 +80,10 @@ proc mulgen(_: type[Curve25519], dst: var Curve25519Key, point: Curve25519Key) =
proc public*(private: Curve25519Key): Curve25519Key = proc public*(private: Curve25519Key): Curve25519Key =
Curve25519.mulgen(result, private) Curve25519.mulgen(result, private)
proc random*(_: type[Curve25519Key], rng: var BrHmacDrbgContext): Curve25519Key = proc random*(_: type[Curve25519Key], rng: var HmacDrbgContext): Curve25519Key =
var res: Curve25519Key var res: Curve25519Key
let defaultBrEc = brEcGetDefault() let defaultBrEc = ecGetDefault()
let len = brEcKeygen( let len = ecKeygen(
addr rng.vtable, defaultBrEc, nil, addr res[0], EC_curve25519) addr rng.vtable, defaultBrEc, nil, addr res[0], EC_curve25519)
# Per bearssl documentation, the keygen only fails if the curve is # Per bearssl documentation, the keygen only fails if the curve is
# unrecognised - # unrecognised -

124
libp2p/crypto/ecnist.nim
View File

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

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

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

29
libp2p/crypto/hkdf.nim
View File

@ -12,29 +12,22 @@
{.push raises: [Defect].} {.push raises: [Defect].}
import nimcrypto import nimcrypto
import bearssl import bearssl/[kdf, rand, hash]
type type HkdfResult*[len: static int] = array[len, byte]
BearHKDFContext {.importc: "br_hkdf_context", header: "bearssl_kdf.h".} = object
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 hkdf*[T: sha256; len: static int](_: type[T]; salt, ikm, info: openArray[byte]; outputs: var openArray[HkdfResult[len]]) =
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]]) =
var var
ctx: BearHKDFContext ctx: HkdfContext
br_hkdf_init( hkdfInit(
addr ctx, addr sha256Vtable, ctx, addr sha256Vtable,
if salt.len > 0: unsafeAddr salt[0] else: nil, csize_t(salt.len)) if salt.len > 0: unsafeAddr salt[0] else: nil, csize_t(salt.len))
br_hkdf_inject( hkdfInject(
addr ctx, if ikm.len > 0: unsafeAddr ikm[0] else: nil, csize_t(ikm.len)) ctx, if ikm.len > 0: unsafeAddr ikm[0] else: nil, csize_t(ikm.len))
br_hkdf_flip(addr ctx) hkdfFlip(ctx)
for i in 0..outputs.high: for i in 0..outputs.high:
br_hkdf_produce( discard hkdfProduce(
addr ctx, ctx,
if info.len > 0: unsafeAddr info[0] if info.len > 0: unsafeAddr info[0]
else: nil, csize_t(info.len), else: nil, csize_t(info.len),
addr outputs[i][0], csize_t(outputs[i].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>. ## Copyright(C) 2018 Thomas Pornin <pornin@bolet.org>.
{.push raises: Defect.} {.push raises: Defect.}
import bearssl import bearssl/[rsa, rand, hash]
import minasn1 import minasn1
import stew/[results, ctops] import stew/[results, ctops]
# We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures. # We use `ncrutils` for constant-time hexadecimal encoding/decoding procedures.
@ -33,41 +33,41 @@ const
## Default RSA key size in bits. ## Default RSA key size in bits.
RsaOidSha1* = [ 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. ## RSA PKCS#1.5 SHA-1 hash object identifier.
RsaOidSha224* = [ RsaOidSha224* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8, byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02'u8, 0x04'u8 0x02, 0x04
] ]
## RSA PKCS#1.5 SHA-224 hash object identifier. ## RSA PKCS#1.5 SHA-224 hash object identifier.
RsaOidSha256* = [ RsaOidSha256* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8, byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02'u8, 0x01'u8 0x02, 0x01
] ]
## RSA PKCS#1.5 SHA-256 hash object identifier. ## RSA PKCS#1.5 SHA-256 hash object identifier.
RsaOidSha384* = [ RsaOidSha384* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8, byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02'u8, 0x02'u8 0x02, 0x02
] ]
## RSA PKCS#1.5 SHA-384 hash object identifier. ## RSA PKCS#1.5 SHA-384 hash object identifier.
RsaOidSha512* = [ RsaOidSha512* = [
0x09'u8, 0x60'u8, 0x86'u8, 0x48'u8, 0x01'u8, 0x65'u8, 0x03'u8, 0x04'u8, byte 0x09, 0x60, 0x86, 0x48, 0x01, 0x65, 0x03, 0x04,
0x02'u8, 0x03'u8 0x02, 0x03
] ]
## RSA PKCS#1.5 SHA-512 hash object identifier. ## RSA PKCS#1.5 SHA-512 hash object identifier.
type type
RsaPrivateKey* = ref object RsaPrivateKey* = ref object
buffer*: seq[byte] buffer*: seq[byte]
seck*: BrRsaPrivateKey seck*: rsa.RsaPrivateKey
pubk*: BrRsaPublicKey pubk*: rsa.RsaPublicKey
pexp*: ptr char pexp*: ptr byte
pexplen*: int pexplen*: uint
RsaPublicKey* = ref object RsaPublicKey* = ref object
buffer*: seq[byte] buffer*: seq[byte]
key*: BrRsaPublicKey key*: rsa.RsaPublicKey
RsaKeyPair* = RsaPrivateKey RsaKeyPair* = RsaPrivateKey
@ -99,8 +99,8 @@ template getFinish(bs, os, ls: untyped): untyped =
var eo = -1 var eo = -1
if p >= s: if p >= s:
let so = cast[int](p - s) let so = cast[int](p - s)
if so + ls <= len(bs): if so + int(ls) <= len(bs):
eo = so + ls - 1 eo = so + int(ls) - 1
eo eo
template getArray*(bs, os, ls: untyped): untyped = 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) = template trimZeroes(b: seq[byte], pt, ptlen: untyped) =
var length = ptlen var length = ptlen
for i in 0..<length: for i in 0..<length:
if pt[] != cast[char](0x00'u8): if pt[] != byte(0x00):
break break
pt = cast[ptr char](cast[uint](pt) + 1) pt = cast[ptr byte](cast[uint](pt) + 1)
ptlen -= 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, bits = DefaultKeySize,
pubexp = DefaultPublicExponent): RsaResult[T] = pubexp = DefaultPublicExponent): RsaResult[T] =
## Generate new random RSA private key using BearSSL's HMAC-SHA256-DRBG ## 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 let
sko = 0 sko = 0
pko = brRsaPrivateKeyBufferSize(bits) pko = rsaKbufPrivSize(bits)
eko = pko + brRsaPublicKeyBufferSize(bits) eko = pko + rsaKbufPubSize(bits)
length = eko + ((bits + 7) shr 3) length = eko + ((bits + 7) shr 3)
let res = new T let res = new T
res.buffer = newSeq[byte](length) res.buffer = newSeq[byte](length)
var keygen = brRsaKeygenGetDefault() var keygen = rsaKeygenGetDefault()
if keygen(addr rng.vtable, if keygen(addr rng.vtable,
addr res.seck, addr res.buffer[sko], addr res.seck, addr res.buffer[sko],
@ -145,12 +145,12 @@ proc random*[T: RsaKP](t: typedesc[T], rng: var BrHmacDrbgContext,
return err(RsaGenError) return err(RsaGenError)
let let
compute = brRsaComputePrivexpGetDefault() compute = rsaComputePrivexpGetDefault()
computed = compute(addr res.buffer[eko], addr res.seck, pubexp) computed = compute(addr res.buffer[eko], addr res.seck, pubexp)
if computed == 0: if computed == 0:
return err(RsaGenError) return err(RsaGenError)
res.pexp = cast[ptr char](addr res.buffer[eko]) res.pexp = addr res.buffer[eko]
res.pexplen = computed res.pexplen = computed
trimZeroes(res.buffer, res.seck.p, res.seck.plen) trimZeroes(res.buffer, res.seck.p, res.seck.plen)
@ -169,12 +169,12 @@ proc copy*[T: RsaPKI](key: T): T =
doAssert(not isNil(key)) doAssert(not isNil(key))
when T is RsaPrivateKey: when T is RsaPrivateKey:
if len(key.buffer) > 0: if len(key.buffer) > 0:
let length = key.seck.plen + key.seck.qlen + key.seck.dplen + let length = key.seck.plen.uint + key.seck.qlen.uint + key.seck.dplen.uint +
key.seck.dqlen + key.seck.iqlen + key.pubk.nlen + key.seck.dqlen.uint + key.seck.iqlen.uint + key.pubk.nlen.uint +
key.pubk.elen + key.pexplen key.pubk.elen.uint + key.pexplen.uint
result = new RsaPrivateKey result = new RsaPrivateKey
result.buffer = newSeq[byte](length) result.buffer = newSeq[byte](length)
let po = 0 let po: uint = 0
let qo = po + key.seck.plen let qo = po + key.seck.plen
let dpo = qo + key.seck.qlen let dpo = qo + key.seck.qlen
let dqo = dpo + key.seck.dplen 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[no], key.pubk.n, key.pubk.nlen)
copyMem(addr result.buffer[eo], key.pubk.e, key.pubk.elen) copyMem(addr result.buffer[eo], key.pubk.e, key.pubk.elen)
copyMem(addr result.buffer[peo], key.pexp, key.pexplen) copyMem(addr result.buffer[peo], key.pexp, key.pexplen)
result.seck.p = cast[ptr char](addr result.buffer[po]) result.seck.p = addr result.buffer[po]
result.seck.q = cast[ptr char](addr result.buffer[qo]) result.seck.q = addr result.buffer[qo]
result.seck.dp = cast[ptr char](addr result.buffer[dpo]) result.seck.dp = addr result.buffer[dpo]
result.seck.dq = cast[ptr char](addr result.buffer[dqo]) result.seck.dq = addr result.buffer[dqo]
result.seck.iq = cast[ptr char](addr result.buffer[iqo]) result.seck.iq = addr result.buffer[iqo]
result.pubk.n = cast[ptr char](addr result.buffer[no]) result.pubk.n = addr result.buffer[no]
result.pubk.e = cast[ptr char](addr result.buffer[eo]) result.pubk.e = addr result.buffer[eo]
result.pexp = cast[ptr char](addr result.buffer[peo]) result.pexp = addr result.buffer[peo]
result.seck.plen = key.seck.plen result.seck.plen = key.seck.plen
result.seck.qlen = key.seck.qlen result.seck.qlen = key.seck.qlen
result.seck.dplen = key.seck.dplen result.seck.dplen = key.seck.dplen
@ -231,8 +231,8 @@ proc getPublicKey*(key: RsaPrivateKey): RsaPublicKey =
let length = key.pubk.nlen + key.pubk.elen let length = key.pubk.nlen + key.pubk.elen
result = new RsaPublicKey result = new RsaPublicKey
result.buffer = newSeq[byte](length) result.buffer = newSeq[byte](length)
result.key.n = cast[ptr char](addr result.buffer[0]) result.key.n = addr result.buffer[0]
result.key.e = cast[ptr char](addr result.buffer[key.pubk.nlen]) 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[0], cast[pointer](key.pubk.n), key.pubk.nlen)
copyMem(addr result.buffer[key.pubk.nlen], cast[pointer](key.pubk.e), copyMem(addr result.buffer[key.pubk.nlen], cast[pointer](key.pubk.e),
key.pubk.elen) 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: len(rawdp) > 0 and len(rawdq) > 0 and len(rawiq) > 0:
key = new RsaPrivateKey key = new RsaPrivateKey
key.buffer = @data key.buffer = @data
key.pubk.n = cast[ptr char](addr key.buffer[rawn.offset]) key.pubk.n = addr key.buffer[rawn.offset]
key.pubk.e = cast[ptr char](addr key.buffer[rawpube.offset]) key.pubk.e = addr key.buffer[rawpube.offset]
key.seck.p = cast[ptr char](addr key.buffer[rawp.offset]) key.seck.p = addr key.buffer[rawp.offset]
key.seck.q = cast[ptr char](addr key.buffer[rawq.offset]) key.seck.q = addr key.buffer[rawq.offset]
key.seck.dp = cast[ptr char](addr key.buffer[rawdp.offset]) key.seck.dp = addr key.buffer[rawdp.offset]
key.seck.dq = cast[ptr char](addr key.buffer[rawdq.offset]) key.seck.dq = addr key.buffer[rawdq.offset]
key.seck.iq = cast[ptr char](addr key.buffer[rawiq.offset]) key.seck.iq = addr key.buffer[rawiq.offset]
key.pexp = cast[ptr char](addr key.buffer[rawprie.offset]) key.pexp = addr key.buffer[rawprie.offset]
key.pubk.nlen = len(rawn) key.pubk.nlen = uint(len(rawn))
key.pubk.elen = len(rawpube) key.pubk.elen = uint(len(rawpube))
key.seck.plen = len(rawp) key.seck.plen = uint(len(rawp))
key.seck.qlen = len(rawq) key.seck.qlen = uint(len(rawq))
key.seck.dplen = len(rawdp) key.seck.dplen = uint(len(rawdp))
key.seck.dqlen = len(rawdq) key.seck.dqlen = uint(len(rawdq))
key.seck.iqlen = len(rawiq) key.seck.iqlen = uint(len(rawiq))
key.pexplen = len(rawprie) key.pexplen = uint(len(rawprie))
key.seck.nBitlen = cast[uint32](len(rawn) shl 3) key.seck.nBitlen = cast[uint32](len(rawn) shl 3)
ok() ok()
else: 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: if len(rawn) >= (MinKeySize shr 3) and len(rawe) > 0:
key = new RsaPublicKey key = new RsaPublicKey
key.buffer = @data key.buffer = @data
key.key.n = cast[ptr char](addr key.buffer[rawn.offset]) key.key.n = addr key.buffer[rawn.offset]
key.key.e = cast[ptr char](addr key.buffer[rawe.offset]) key.key.e = addr key.buffer[rawe.offset]
key.key.nlen = len(rawn) key.key.nlen = uint(len(rawn))
key.key.elen = len(rawe) key.key.elen = uint(len(rawe))
ok() ok()
else: else:
err(Asn1Error.Incorrect) err(Asn1Error.Incorrect)
@ -749,22 +749,22 @@ proc sign*[T: byte|char](key: RsaPrivateKey,
if isNil(key): if isNil(key):
return err(RsaKeyIncorrectError) return err(RsaKeyIncorrectError)
var hc: BrHashCompatContext var hc: HashCompatContext
var hash: array[32, byte] var hash: array[32, byte]
let impl = BrRsaPkcs1SignGetDefault() let impl = rsaPkcs1SignGetDefault()
var res = new RsaSignature var res = new RsaSignature
res.buffer = newSeq[byte]((key.seck.nBitlen + 7) shr 3) res.buffer = newSeq[byte]((key.seck.nBitlen + 7) shr 3)
var kv = addr sha256Vtable var kv = addr sha256Vtable
kv.init(addr hc.vtable) kv.init(addr hc.vtable)
if len(message) > 0: 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: else:
kv.update(addr hc.vtable, nil, 0) 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 var oid = RsaOidSha256
let implRes = impl(cast[ptr char](addr oid[0]), let implRes = impl(addr oid[0],
cast[ptr char](addr hash[0]), len(hash), addr hash[0], uint(len(hash)),
addr key.seck, cast[ptr char](addr res.buffer[0])) addr key.seck, addr res.buffer[0])
if implRes == 0: if implRes == 0:
err(RsaSignatureError) err(RsaSignatureError)
else: else:
@ -779,20 +779,20 @@ proc verify*[T: byte|char](sig: RsaSignature, message: openArray[T],
## verification failed. ## verification failed.
doAssert((not isNil(sig)) and (not isNil(pubkey))) doAssert((not isNil(sig)) and (not isNil(pubkey)))
if len(sig.buffer) > 0: if len(sig.buffer) > 0:
var hc: BrHashCompatContext var hc: HashCompatContext
var hash: array[32, byte] var hash: array[32, byte]
var check: array[32, byte] var check: array[32, byte]
var impl = BrRsaPkcs1VrfyGetDefault() var impl = rsaPkcs1VrfyGetDefault()
var kv = addr sha256Vtable var kv = addr sha256Vtable
kv.init(addr hc.vtable) kv.init(addr hc.vtable)
if len(message) > 0: 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: else:
kv.update(addr hc.vtable, nil, 0) 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 var oid = RsaOidSha256
let res = impl(cast[ptr char](addr sig.buffer[0]), len(sig.buffer), let res = impl(addr sig.buffer[0], uint(len(sig.buffer)),
cast[ptr char](addr oid[0]), addr oid[0],
len(check), addr pubkey.key, cast[ptr char](addr check[0])) uint(len(check)), addr pubkey.key, addr check[0])
if res == 1: if res == 1:
result = equalMem(addr check[0], addr hash[0], len(hash)) result = equalMem(addr check[0], addr hash[0], len(hash))

18
libp2p/crypto/secp.nim
View File

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

11
libp2p/protocols/ping.nim
View File

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

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

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

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

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

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

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

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

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

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

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

8
tests/helpers.nim
View File

@ -1,6 +1,6 @@
{.push raises: [Defect].} {.push raises: [Defect].}
import chronos, bearssl import chronos
import ../libp2p/transports/tcptransport import ../libp2p/transports/tcptransport
import ../libp2p/stream/bufferstream import ../libp2p/stream/bufferstream
@ -58,11 +58,11 @@ template checkTrackers*() =
except: discard except: discard
type RngWrap = object type RngWrap = object
rng: ref BrHmacDrbgContext rng: ref HmacDrbgContext
var rngVar: RngWrap 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 # 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 # 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 # 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 = newRng()
rngVar.rng rngVar.rng
template rng*(): ref BrHmacDrbgContext = template rng*(): ref HmacDrbgContext =
getRng() getRng()
type type

1
tests/pubsub/testgossipinternal.nim
View File

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

2
tests/pubsub/testmcache.nim
View File

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

6
tests/testcrypto.nim
View File

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

4
tests/testnoise.nim
View File

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

2
tests/testpeerinfo.nim
View File

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

2
tests/testping.nim
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@ -1,4 +1,4 @@
import options, bearssl import options
import chronos, strutils import chronos, strutils
import ../libp2p/[protocols/identify, import ../libp2p/[protocols/identify,
protocols/ping, protocols/ping,

2
tests/testrelay.nim
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@ -1,6 +1,6 @@
{.used.} {.used.}
import options, bearssl, chronos import options, chronos
import stew/byteutils import stew/byteutils
import ../libp2p/[protocols/relay, import ../libp2p/[protocols/relay,
multiaddress, multiaddress,

2
tests/testsecp256k1.nim
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@ -6,7 +6,7 @@
## at your option. ## at your option.
## This file may not be copied, modified, or distributed except according to ## This file may not be copied, modified, or distributed except according to
## those terms. ## those terms.
import unittest2, bearssl import unittest2
import ../libp2p/crypto/[crypto, secp] import ../libp2p/crypto/[crypto, secp]
import nimcrypto/utils import nimcrypto/utils