lnd.xprv/lnwire/channel_announcement_test.go

134 lines
3.8 KiB
Go

package lnwire
import (
"bytes"
"reflect"
"testing"
"github.com/roasbeef/btcd/btcec"
"github.com/roasbeef/btcd/wire"
)
func TestChannelAnnoucementEncodeDecode(t *testing.T) {
ca := &ChannelAnnouncement{
FirstNodeSig: someSig,
SecondNodeSig: someSig,
ChannelID: someChannelID,
FirstBitcoinSig: someSig,
SecondBitcoinSig: someSig,
FirstNodeID: pubKey,
SecondNodeID: pubKey,
FirstBitcoinKey: pubKey,
SecondBitcoinKey: pubKey,
}
// Next encode the CA message into an empty bytes buffer.
var b bytes.Buffer
if err := ca.Encode(&b, 0); err != nil {
t.Fatalf("unable to encode ChannelAnnouncement: %v", err)
}
// Ensure the max payload estimate is correct.
serializedLength := uint32(b.Len())
if serializedLength != ca.MaxPayloadLength(0) {
t.Fatalf("payload length estimate is incorrect: expected %v "+
"got %v", serializedLength, ca.MaxPayloadLength(0))
}
// Deserialize the encoded CA message into a new empty struct.
ca2 := &ChannelAnnouncement{}
if err := ca2.Decode(&b, 0); err != nil {
t.Fatalf("unable to decode ChannelAnnouncement: %v", err)
}
// Assert equality of the two instances.
if !reflect.DeepEqual(ca, ca2) {
t.Fatalf("encode/decode error messages don't match %#v vs %#v",
ca, ca2)
}
}
func TestChannelAnnoucementValidation(t *testing.T) {
getKeys := func(s string) (*btcec.PrivateKey, *btcec.PublicKey) {
return btcec.PrivKeyFromBytes(btcec.S256(), []byte(s))
}
firstNodePrivKey, firstNodePubKey := getKeys("node-id-1")
secondNodePrivKey, secondNodePubKey := getKeys("node-id-2")
firstBitcoinPrivKey, firstBitcoinPubKey := getKeys("bitcoin-key-1")
secondBitcoinPrivKey, secondBitcoinPubKey := getKeys("bitcoin-key-2")
var hash []byte
hash = wire.DoubleSha256(firstNodePubKey.SerializeCompressed())
firstBitcoinSig, _ := firstBitcoinPrivKey.Sign(hash)
hash = wire.DoubleSha256(secondNodePubKey.SerializeCompressed())
secondBitcoinSig, _ := secondBitcoinPrivKey.Sign(hash)
ca := &ChannelAnnouncement{
ChannelID: someChannelID,
FirstBitcoinSig: firstBitcoinSig,
SecondBitcoinSig: secondBitcoinSig,
FirstNodeID: firstNodePubKey,
SecondNodeID: secondNodePubKey,
FirstBitcoinKey: firstBitcoinPubKey,
SecondBitcoinKey: secondBitcoinPubKey,
}
dataToSign, _ := ca.DataToSign()
hash = wire.DoubleSha256(dataToSign)
firstNodeSign, _ := firstNodePrivKey.Sign(hash)
ca.FirstNodeSig = firstNodeSign
secondNodeSign, _ := secondNodePrivKey.Sign(hash)
ca.SecondNodeSig = secondNodeSign
if err := ca.Validate(); err != nil {
t.Fatal(err)
}
}
func TestChannelAnnoucementBadValidation(t *testing.T) {
getKeys := func(s string) (*btcec.PrivateKey, *btcec.PublicKey) {
return btcec.PrivKeyFromBytes(btcec.S256(), []byte(s))
}
firstNodePrivKey, firstNodePubKey := getKeys("node-id-1")
secondNodePrivKey, secondNodePubKey := getKeys("node-id-2")
firstBitcoinPrivKey, _ := getKeys("bitcoin-key-1")
secondBitcoinPrivKey, _ := getKeys("bitcoin-key-2")
var hash []byte
hash = wire.DoubleSha256(firstNodePubKey.SerializeCompressed())
firstBitcoinSig, _ := firstBitcoinPrivKey.Sign(hash)
hash = wire.DoubleSha256(secondNodePubKey.SerializeCompressed())
secondBitcoinSig, _ := secondBitcoinPrivKey.Sign(hash)
ca := &ChannelAnnouncement{
ChannelID: someChannelID,
FirstBitcoinSig: firstBitcoinSig,
SecondBitcoinSig: secondBitcoinSig,
FirstNodeID: pubKey, // wrong pubkey
SecondNodeID: pubKey, // wrong pubkey
FirstBitcoinKey: pubKey, // wrong pubkey
SecondBitcoinKey: pubKey, // wrong pubkey
}
dataToSign, _ := ca.DataToSign()
hash = wire.DoubleSha256(dataToSign)
firstNodeSign, _ := firstNodePrivKey.Sign(hash)
ca.FirstNodeSig = firstNodeSign
secondNodeSign, _ := secondNodePrivKey.Sign(hash)
ca.SecondNodeSig = secondNodeSign
if err := ca.Validate(); err == nil {
t.Fatal("error should be raised")
}
}