// keyToAddr maps the passed private to corresponding p2pkh address.
func keyToAddr(key *btcec.PrivateKey, net *chaincfg.Params) (btcutil.Address, error) {
serializedKey := key.PubKey().SerializeCompressed()
pubKeyAddr, err := btcutil.NewAddressPubKey(serializedKey, net)
if err != nil {
return nil, err
}
return pubKeyAddr.AddressPubKeyHash(), nil
}
// newAddressPubKey returns a new btcutil.AddressPubKey from the provided
// serialized public key. It panics if an error occurs. This is only used in
// the tests as a helper since the only way it can fail is if there is an error
// in the test source code.
func newAddressPubKey(serializedPubKey []byte) btcutil.Address {
addr, err := btcutil.NewAddressPubKey(serializedPubKey,
&chaincfg.MainNetParams)
if err != nil {
panic("invalid public key in test source")
}
return addr
}
func createTestChannelState(cdb *DB) (*OpenChannel, error) {
addr, err := btcutil.NewAddressPubKey(pubKey.SerializeCompressed(), netParams)
if err != nil {
return nil, err
}
script, err := txscript.MultiSigScript([]*btcutil.AddressPubKey{addr, addr}, 2)
if err != nil {
return nil, err
}
// Simulate 1000 channel updates via progression of the elkrem
// revocation trees.
sender := elkrem.NewElkremSender(key)
receiver := &elkrem.ElkremReceiver{}
for i := 0; i < 1000; i++ {
preImage, err := sender.AtIndex(uint64(i))
if err != nil {
return nil, err
}
if receiver.AddNext(preImage); err != nil {
return nil, err
}
}
return &OpenChannel{
IdentityPub: pubKey,
ChanID: id,
MinFeePerKb: btcutil.Amount(5000),
OurCommitKey: privKey.PubKey(),
TheirCommitKey: pubKey,
Capacity: btcutil.Amount(10000),
OurBalance: btcutil.Amount(3000),
TheirBalance: btcutil.Amount(9000),
OurCommitTx: testTx,
OurCommitSig: bytes.Repeat([]byte{1}, 71),
LocalElkrem: sender,
RemoteElkrem: receiver,
FundingOutpoint: testOutpoint,
OurMultiSigKey: privKey.PubKey(),
TheirMultiSigKey: privKey.PubKey(),
FundingWitnessScript: script,
TheirCurrentRevocation: privKey.PubKey(),
TheirCurrentRevocationHash: key,
OurDeliveryScript: script,
TheirDeliveryScript: script,
LocalCsvDelay: 5,
RemoteCsvDelay: 9,
NumUpdates: 0,
TotalSatoshisSent: 8,
TotalSatoshisReceived: 2,
TotalNetFees: 9,
CreationTime: time.Date(2009, time.November, 10, 23, 0, 0, 0, time.UTC),
Db: cdb,
}, nil
}
// makeTestOutput creates an on-chain output paying to a freshly generated
// p2pkh output with the specified amount.
func makeTestOutput(r *rpctest.Harness, t *testing.T,
amt btcutil.Amount) (*btcec.PrivateKey, *wire.OutPoint, []byte, error) {
// Create a fresh key, then send some coins to an address spendable by
// that key.
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
return nil, nil, nil, err
}
// Using the key created above, generate a pkScript which it's able to
// spend.
a, err := btcutil.NewAddressPubKey(key.PubKey().SerializeCompressed(), r.ActiveNet)
if err != nil {
return nil, nil, nil, err
}
selfAddrScript, err := txscript.PayToAddrScript(a.AddressPubKeyHash())
if err != nil {
return nil, nil, nil, err
}
output := &wire.TxOut{PkScript: selfAddrScript, Value: 1e8}
// Next, create and broadcast a transaction paying to the output.
fundTx, err := r.CreateTransaction([]*wire.TxOut{output}, 10)
if err != nil {
return nil, nil, nil, err
}
txHash, err := r.Node.SendRawTransaction(fundTx, true)
if err != nil {
return nil, nil, nil, err
}
// The transaction created above should be included within the next
// generated block.
blockHash, err := r.Node.Generate(1)
if err != nil {
return nil, nil, nil, err
}
assertTxInBlock(r, t, blockHash[0], txHash)
// Locate the output index of the coins spendable by the key we
// generated above, this is needed in order to create a proper utxo for
// this output.
var outputIndex uint32
if bytes.Equal(fundTx.TxOut[0].PkScript, selfAddrScript) {
outputIndex = 0
} else {
outputIndex = 1
}
utxo := &wire.OutPoint{
Hash: fundTx.TxHash(),
Index: outputIndex,
}
return key, utxo, selfAddrScript, nil
}
// DepositScript constructs and returns a multi-signature redemption script where
// a certain number (Series.reqSigs) of the public keys belonging to the series
// with the given ID are required to sign the transaction for it to be successful.
func (p *Pool) DepositScript(seriesID uint32, branch Branch, index Index) ([]byte, error) {
series := p.Series(seriesID)
if series == nil {
str := fmt.Sprintf("series #%d does not exist", seriesID)
return nil, newError(ErrSeriesNotExists, str, nil)
}
pubKeys, err := branchOrder(series.publicKeys, branch)
if err != nil {
return nil, err
}
pks := make([]*btcutil.AddressPubKey, len(pubKeys))
for i, key := range pubKeys {
child, err := key.Child(uint32(index))
// TODO: implement getting the next index until we find a valid one,
// in case there is a hdkeychain.ErrInvalidChild.
if err != nil {
str := fmt.Sprintf("child #%d for this pubkey %d does not exist", index, i)
return nil, newError(ErrKeyChain, str, err)
}
pubkey, err := child.ECPubKey()
if err != nil {
str := fmt.Sprintf("child #%d for this pubkey %d does not exist", index, i)
return nil, newError(ErrKeyChain, str, err)
}
pks[i], err = btcutil.NewAddressPubKey(pubkey.SerializeCompressed(),
p.manager.ChainParams())
if err != nil {
str := fmt.Sprintf(
"child #%d for this pubkey %d could not be converted to an address",
index, i)
return nil, newError(ErrKeyChain, str, err)
}
}
script, err := txscript.MultiSigScript(pks, int(series.reqSigs))
if err != nil {
str := fmt.Sprintf("error while making multisig script hash, %d", len(pks))
return nil, newError(ErrScriptCreation, str, err)
}
return script, nil
}
"github.com/roasbeef/btcd/txscript"
"github.com/roasbeef/btcd/wire"
"github.com/roasbeef/btcutil"
)
var (
testPrivKey = []byte{
0x81, 0xb6, 0x37, 0xd8, 0xfc, 0xd2, 0xc6, 0xda,
0x63, 0x59, 0xe6, 0x96, 0x31, 0x13, 0xa1, 0x17,
0xd, 0xe7, 0x95, 0xe4, 0xb7, 0x25, 0xb8, 0x4d,
0x1e, 0xb, 0x4c, 0xfd, 0x9e, 0xc5, 0x8c, 0xe9,
}
netParams = &chaincfg.SimNetParams
privKey, pubKey = btcec.PrivKeyFromBytes(btcec.S256(), testPrivKey)
addrPk, _ = btcutil.NewAddressPubKey(pubKey.SerializeCompressed(),
netParams)
testAddr = addrPk.AddressPubKeyHash()
)
func getTestTxId(miner *rpctest.Harness) (*wire.ShaHash, error) {
script, err := txscript.PayToAddrScript(testAddr)
if err != nil {
return nil, err
}
outputs := []*wire.TxOut{&wire.TxOut{2e8, script}}
return miner.CoinbaseSpend(outputs)
}
func testSingleConfirmationNotification(miner *rpctest.Harness,
notifier chainntnfs.ChainNotifier, t *testing.T) {
// ExtractPkScriptAddrs returns the type of script, addresses and required
// signatures associated with the passed PkScript. Note that it only works for
// 'standard' transaction script types. Any data such as public keys which are
// invalid are omitted from the results.
func ExtractPkScriptAddrs(pkScript []byte, chainParams *chaincfg.Params) (ScriptClass, []btcutil.Address, int, error) {
var addrs []btcutil.Address
var requiredSigs int
// No valid addresses or required signatures if the script doesn't
// parse.
pops, err := parseScript(pkScript)
if err != nil {
return NonStandardTy, nil, 0, err
}
scriptClass := typeOfScript(pops)
switch scriptClass {
case PubKeyHashTy:
// A pay-to-pubkey-hash script is of the form:
// OP_DUP OP_HASH160 <hash> OP_EQUALVERIFY OP_CHECKSIG
// Therefore the pubkey hash is the 3rd item on the stack.
// Skip the pubkey hash if it's invalid for some reason.
requiredSigs = 1
addr, err := btcutil.NewAddressPubKeyHash(pops[2].data,
chainParams)
if err == nil {
addrs = append(addrs, addr)
}
case WitnessPubKeyHashTy:
// A pay-to-witness-pubkey-hash script is of thw form:
// OP_0 <20-byte hash>
// Therefore, the pubkey hash is the second item on the stack.
// Skip the pubkey hash if it's invalid for some reason.
requiredSigs = 1
addr, err := btcutil.NewAddressWitnessPubKeyHash(pops[1].data,
chainParams)
if err == nil {
addrs = append(addrs, addr)
}
case PubKeyTy:
// A pay-to-pubkey script is of the form:
// <pubkey> OP_CHECKSIG
// Therefore the pubkey is the first item on the stack.
// Skip the pubkey if it's invalid for some reason.
requiredSigs = 1
addr, err := btcutil.NewAddressPubKey(pops[0].data, chainParams)
if err == nil {
addrs = append(addrs, addr)
}
case ScriptHashTy:
// A pay-to-script-hash script is of the form:
// OP_HASH160 <scripthash> OP_EQUAL
// Therefore the script hash is the 2nd item on the stack.
// Skip the script hash if it's invalid for some reason.
requiredSigs = 1
addr, err := btcutil.NewAddressScriptHashFromHash(pops[1].data,
chainParams)
if err == nil {
addrs = append(addrs, addr)
}
case WitnessScriptHashTy:
// A pay-to-witness-script-hash script is of the form:
// OP_0 <32-byte hash>
// Therefore, the script hash is the second item on the stack.
// Skip the script hash if it's invalid for some reason.
requiredSigs = 1
addr, err := btcutil.NewAddressWitnessScriptHashFromHash(pops[1].data,
chainParams)
if err == nil {
addrs = append(addrs, addr)
}
case MultiSigTy:
// A multi-signature script is of the form:
// <numsigs> <pubkey> <pubkey> <pubkey>... <numpubkeys> OP_CHECKMULTISIG
// Therefore the number of required signatures is the 1st item
// on the stack and the number of public keys is the 2nd to last
// item on the stack.
requiredSigs = asSmallInt(pops[0].opcode)
numPubKeys := asSmallInt(pops[len(pops)-2].opcode)
// Extract the public keys while skipping any that are invalid.
addrs = make([]btcutil.Address, 0, numPubKeys)
for i := 0; i < numPubKeys; i++ {
addr, err := btcutil.NewAddressPubKey(pops[i+1].data,
chainParams)
if err == nil {
addrs = append(addrs, addr)
}
}
case NullDataTy:
// Null data transactions have no addresses or required
// signatures.
case NonStandardTy:
// Don't attempt to extract addresses or required signatures for
// nonstandard transactions.
}
return scriptClass, addrs, requiredSigs, nil
}
func TestSignTxOutput(t *testing.T) {
t.Parallel()
// make key
// make script based on key.
// sign with magic pixie dust.
hashTypes := []SigHashType{
SigHashOld, // no longer used but should act like all
SigHashAll,
SigHashNone,
SigHashSingle,
SigHashAll | SigHashAnyOneCanPay,
SigHashNone | SigHashAnyOneCanPay,
SigHashSingle | SigHashAnyOneCanPay,
}
inputAmounts := []int64{5, 10, 15}
tx := &wire.MsgTx{
Version: 1,
TxIn: []*wire.TxIn{
{
PreviousOutPoint: wire.OutPoint{
Hash: chainhash.Hash{},
Index: 0,
},
Sequence: 4294967295,
},
{
PreviousOutPoint: wire.OutPoint{
Hash: chainhash.Hash{},
Index: 1,
},
Sequence: 4294967295,
},
{
PreviousOutPoint: wire.OutPoint{
Hash: chainhash.Hash{},
Index: 2,
},
Sequence: 4294967295,
},
},
TxOut: []*wire.TxOut{
{
Value: 1,
},
{
Value: 2,
},
{
Value: 3,
},
},
LockTime: 0,
}
// Pay to Pubkey Hash (uncompressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
if err := signAndCheck(msg, tx, i, inputAmounts[i], pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(nil), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to Pubkey Hash (uncompressed) (merging with correct)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(nil), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(nil), sigScript)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i], sigScript, pkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Pay to Pubkey Hash (compressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(nil), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to Pubkey Hash (compressed) with duplicate merge
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(nil), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(nil), sigScript)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i],
sigScript, pkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Pay to PubKey (uncompressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(nil), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to PubKey (uncompressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(nil), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(nil), sigScript)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i], sigScript, pkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Pay to PubKey (compressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(nil), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to PubKey (compressed) with duplicate merge
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(nil), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, pkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(nil), sigScript)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i],
sigScript, pkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// As before, but with p2sh now.
// Pay to Pubkey Hash (uncompressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
break
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(
scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to Pubkey Hash (uncompressed) with duplicate merge
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
break
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(
scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i],
sigScript, scriptPkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Pay to Pubkey Hash (compressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(
scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to Pubkey Hash (compressed) with duplicate merge
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKeyHash(
btcutil.Hash160(pk), &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(
scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i],
sigScript, scriptPkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Pay to PubKey (uncompressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(
scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to PubKey (uncompressed) with duplicate merge
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeUncompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, false},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i],
sigScript, scriptPkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Pay to PubKey (compressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil); err != nil {
t.Error(err)
break
}
}
}
// Pay to PubKey (compressed)
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk := (*btcec.PublicKey)(&key.PublicKey).
SerializeCompressed()
address, err := btcutil.NewAddressPubKey(pk,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
pkScript, err := PayToAddrScript(address)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// by the above loop, this should be valid, now sign
// again and merge.
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address.EncodeAddress(): {key, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s a "+
"second time: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i],
sigScript, scriptPkScript)
if err != nil {
t.Errorf("twice signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Basic Multisig
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key1, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk1 := (*btcec.PublicKey)(&key1.PublicKey).
SerializeCompressed()
address1, err := btcutil.NewAddressPubKey(pk1,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
key2, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey 2 for %s: %v",
msg, err)
break
}
pk2 := (*btcec.PublicKey)(&key2.PublicKey).
SerializeCompressed()
address2, err := btcutil.NewAddressPubKey(pk2,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address 2 for %s: %v",
msg, err)
break
}
pkScript, err := MultiSigScript(
[]*btcutil.AddressPubKey{address1, address2},
2)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
if err := signAndCheck(msg, tx, i, inputAmounts[i],
scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address1.EncodeAddress(): {key1, true},
address2.EncodeAddress(): {key2, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil); err != nil {
t.Error(err)
break
}
}
}
// Two part multisig, sign with one key then the other.
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key1, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk1 := (*btcec.PublicKey)(&key1.PublicKey).
SerializeCompressed()
address1, err := btcutil.NewAddressPubKey(pk1,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
key2, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey 2 for %s: %v",
msg, err)
break
}
pk2 := (*btcec.PublicKey)(&key2.PublicKey).
SerializeCompressed()
address2, err := btcutil.NewAddressPubKey(pk2,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address 2 for %s: %v",
msg, err)
break
}
pkScript, err := MultiSigScript(
[]*btcutil.AddressPubKey{address1, address2},
2)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address1.EncodeAddress(): {key1, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// Only 1 out of 2 signed, this *should* fail.
if checkScripts(msg, tx, i, inputAmounts[i], sigScript,
scriptPkScript) == nil {
t.Errorf("part signed script valid for %s", msg)
break
}
// Sign with the other key and merge
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address2.EncodeAddress(): {key2, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), sigScript)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg, err)
break
}
err = checkScripts(msg, tx, i, inputAmounts[i], sigScript,
scriptPkScript)
if err != nil {
t.Errorf("fully signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
// Two part multisig, sign with one key then both, check key dedup
// correctly.
for _, hashType := range hashTypes {
for i := range tx.TxIn {
msg := fmt.Sprintf("%d:%d", hashType, i)
key1, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey for %s: %v",
msg, err)
break
}
pk1 := (*btcec.PublicKey)(&key1.PublicKey).
SerializeCompressed()
address1, err := btcutil.NewAddressPubKey(pk1,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address for %s: %v",
msg, err)
break
}
key2, err := btcec.NewPrivateKey(btcec.S256())
if err != nil {
t.Errorf("failed to make privKey 2 for %s: %v",
msg, err)
break
}
pk2 := (*btcec.PublicKey)(&key2.PublicKey).
SerializeCompressed()
address2, err := btcutil.NewAddressPubKey(pk2,
&chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make address 2 for %s: %v",
msg, err)
break
}
pkScript, err := MultiSigScript(
[]*btcutil.AddressPubKey{address1, address2},
2)
if err != nil {
t.Errorf("failed to make pkscript "+
"for %s: %v", msg, err)
}
scriptAddr, err := btcutil.NewAddressScriptHash(
pkScript, &chaincfg.TestNet3Params)
if err != nil {
t.Errorf("failed to make p2sh addr for %s: %v",
msg, err)
break
}
scriptPkScript, err := PayToAddrScript(scriptAddr)
if err != nil {
t.Errorf("failed to make script pkscript for "+
"%s: %v", msg, err)
break
}
sigScript, err := SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address1.EncodeAddress(): {key1, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), nil)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg,
err)
break
}
// Only 1 out of 2 signed, this *should* fail.
if checkScripts(msg, tx, i, inputAmounts[i], sigScript,
scriptPkScript) == nil {
t.Errorf("part signed script valid for %s", msg)
break
}
// Sign with the other key and merge
sigScript, err = SignTxOutput(&chaincfg.TestNet3Params,
tx, i, scriptPkScript, hashType,
mkGetKey(map[string]addressToKey{
address1.EncodeAddress(): {key1, true},
address2.EncodeAddress(): {key2, true},
}), mkGetScript(map[string][]byte{
scriptAddr.EncodeAddress(): pkScript,
}), sigScript)
if err != nil {
t.Errorf("failed to sign output %s: %v", msg, err)
break
}
// Now we should pass.
err = checkScripts(msg, tx, i, inputAmounts[i],
sigScript, scriptPkScript)
if err != nil {
t.Errorf("fully signed script invalid for "+
"%s: %v", msg, err)
break
}
}
}
}
// TestMultiSigScript ensures the MultiSigScript function returns the expected
// scripts and errors.
func TestMultiSigScript(t *testing.T) {
t.Parallel()
// mainnet p2pk 13CG6SJ3yHUXo4Cr2RY4THLLJrNFuG3gUg
p2pkCompressedMain, err := btcutil.NewAddressPubKey(hexToBytes("02192d"+
"74d0cb94344c9569c2e77901573d8d7903c3ebec3a957724895dca52c6b4"),
&chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create pubkey address (compressed): %v",
err)
return
}
p2pkCompressed2Main, err := btcutil.NewAddressPubKey(hexToBytes("03b0b"+
"d634234abbb1ba1e986e884185c61cf43e001f9137f23c2c409273eb16e65"),
&chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create pubkey address (compressed 2): %v",
err)
return
}
p2pkUncompressedMain, err := btcutil.NewAddressPubKey(hexToBytes("0411"+
"db93e1dcdb8a016b49840f8c53bc1eb68a382e97b1482ecad7b148a6909a5"+
"cb2e0eaddfb84ccf9744464f82e160bfa9b8b64f9d4c03f999b8643f656b4"+
"12a3"), &chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create pubkey address (uncompressed): %v",
err)
return
}
tests := []struct {
keys []*btcutil.AddressPubKey
nrequired int
expected string
err error
}{
{
[]*btcutil.AddressPubKey{
p2pkCompressedMain,
p2pkCompressed2Main,
},
1,
"1 DATA_33 0x02192d74d0cb94344c9569c2e77901573d8d7903c" +
"3ebec3a957724895dca52c6b4 DATA_33 0x03b0bd634" +
"234abbb1ba1e986e884185c61cf43e001f9137f23c2c4" +
"09273eb16e65 2 CHECKMULTISIG",
nil,
},
{
[]*btcutil.AddressPubKey{
p2pkCompressedMain,
p2pkCompressed2Main,
},
2,
"2 DATA_33 0x02192d74d0cb94344c9569c2e77901573d8d7903c" +
"3ebec3a957724895dca52c6b4 DATA_33 0x03b0bd634" +
"234abbb1ba1e986e884185c61cf43e001f9137f23c2c4" +
"09273eb16e65 2 CHECKMULTISIG",
nil,
},
{
[]*btcutil.AddressPubKey{
p2pkCompressedMain,
p2pkCompressed2Main,
},
3,
"",
ErrBadNumRequired,
},
{
[]*btcutil.AddressPubKey{
p2pkUncompressedMain,
},
1,
"1 DATA_65 0x0411db93e1dcdb8a016b49840f8c53bc1eb68a382" +
"e97b1482ecad7b148a6909a5cb2e0eaddfb84ccf97444" +
"64f82e160bfa9b8b64f9d4c03f999b8643f656b412a3 " +
"1 CHECKMULTISIG",
nil,
},
{
[]*btcutil.AddressPubKey{
p2pkUncompressedMain,
},
2,
"",
ErrBadNumRequired,
},
}
t.Logf("Running %d tests", len(tests))
for i, test := range tests {
script, err := MultiSigScript(test.keys, test.nrequired)
if err != test.err {
t.Errorf("MultiSigScript #%d unexpected error - "+
"got %v, want %v", i, err, test.err)
continue
}
expected := mustParseShortForm(test.expected)
if !bytes.Equal(script, expected) {
t.Errorf("MultiSigScript #%d got: %x\nwant: %x",
i, script, expected)
continue
}
}
}
// TestPayToAddrScript ensures the PayToAddrScript function generates the
// correct scripts for the various types of addresses.
func TestPayToAddrScript(t *testing.T) {
t.Parallel()
// 1MirQ9bwyQcGVJPwKUgapu5ouK2E2Ey4gX
p2pkhMain, err := btcutil.NewAddressPubKeyHash(hexToBytes("e34cce70c86"+
"373273efcc54ce7d2a491bb4a0e84"), &chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create public key hash address: %v", err)
return
}
// Taken from transaction:
// b0539a45de13b3e0403909b8bd1a555b8cbe45fd4e3f3fda76f3a5f52835c29d
p2shMain, _ := btcutil.NewAddressScriptHashFromHash(hexToBytes("e8c300"+
"c87986efa84c37c0519929019ef86eb5b4"), &chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create script hash address: %v", err)
return
}
// mainnet p2pk 13CG6SJ3yHUXo4Cr2RY4THLLJrNFuG3gUg
p2pkCompressedMain, err := btcutil.NewAddressPubKey(hexToBytes("02192d"+
"74d0cb94344c9569c2e77901573d8d7903c3ebec3a957724895dca52c6b4"),
&chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create pubkey address (compressed): %v",
err)
return
}
p2pkCompressed2Main, err := btcutil.NewAddressPubKey(hexToBytes("03b0b"+
"d634234abbb1ba1e986e884185c61cf43e001f9137f23c2c409273eb16e65"),
&chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create pubkey address (compressed 2): %v",
err)
return
}
p2pkUncompressedMain, err := btcutil.NewAddressPubKey(hexToBytes("0411"+
"db93e1dcdb8a016b49840f8c53bc1eb68a382e97b1482ecad7b148a6909a5"+
"cb2e0eaddfb84ccf9744464f82e160bfa9b8b64f9d4c03f999b8643f656b4"+
"12a3"), &chaincfg.MainNetParams)
if err != nil {
t.Errorf("Unable to create pubkey address (uncompressed): %v",
err)
return
}
tests := []struct {
in btcutil.Address
expected string
err error
}{
// pay-to-pubkey-hash address on mainnet
{
p2pkhMain,
"DUP HASH160 DATA_20 0xe34cce70c86373273efcc54ce7d2a4" +
"91bb4a0e8488 CHECKSIG",
nil,
},
// pay-to-script-hash address on mainnet
{
p2shMain,
"HASH160 DATA_20 0xe8c300c87986efa84c37c0519929019ef8" +
"6eb5b4 EQUAL",
nil,
},
// pay-to-pubkey address on mainnet. compressed key.
{
p2pkCompressedMain,
"DATA_33 0x02192d74d0cb94344c9569c2e77901573d8d7903c3" +
"ebec3a957724895dca52c6b4 CHECKSIG",
nil,
},
// pay-to-pubkey address on mainnet. compressed key (other way).
{
p2pkCompressed2Main,
"DATA_33 0x03b0bd634234abbb1ba1e986e884185c61cf43e001" +
"f9137f23c2c409273eb16e65 CHECKSIG",
nil,
},
// pay-to-pubkey address on mainnet. uncompressed key.
{
p2pkUncompressedMain,
"DATA_65 0x0411db93e1dcdb8a016b49840f8c53bc1eb68a382e" +
"97b1482ecad7b148a6909a5cb2e0eaddfb84ccf97444" +
"64f82e160bfa9b8b64f9d4c03f999b8643f656b412a3 " +
"CHECKSIG",
nil,
},
// Supported address types with nil pointers.
{(*btcutil.AddressPubKeyHash)(nil), "", ErrUnsupportedAddress},
{(*btcutil.AddressScriptHash)(nil), "", ErrUnsupportedAddress},
{(*btcutil.AddressPubKey)(nil), "", ErrUnsupportedAddress},
// Unsupported address type.
{&bogusAddress{}, "", ErrUnsupportedAddress},
}
t.Logf("Running %d tests", len(tests))
for i, test := range tests {
pkScript, err := PayToAddrScript(test.in)
if err != test.err {
t.Errorf("PayToAddrScript #%d unexpected error - "+
"got %v, want %v", i, err, test.err)
continue
}
expected := mustParseShortForm(test.expected)
if !bytes.Equal(pkScript, expected) {
t.Errorf("PayToAddrScript #%d got: %x\nwant: %x",
i, pkScript, expected)
continue
}
}
}
// TestCalcSequenceLock tests the LockTimeToSequence function, and the
// CalcSequenceLock method of a Chain instance. The tests exercise several
// combinations of inputs to the CalcSequenceLock function in order to ensure
// the returned SequenceLocks are correct for each test instance.
func TestCalcSequenceLock(t *testing.T) {
netParams := &chaincfg.SimNetParams
// Create a new database and chain instance to run tests against.
chain, teardownFunc, err := chainSetup("calcseqlock", netParams)
if err != nil {
t.Errorf("Failed to setup chain instance: %v", err)
return
}
defer teardownFunc()
// Since we're not dealing with the real block chain, disable
// checkpoints and set the coinbase maturity to 1.
chain.DisableCheckpoints(true)
chain.TstSetCoinbaseMaturity(1)
// Create a test mining address to use for the blocks we'll generate
// shortly below.
k := bytes.Repeat([]byte{1}, 32)
_, miningPub := btcec.PrivKeyFromBytes(btcec.S256(), k)
miningAddr, err := btcutil.NewAddressPubKey(miningPub.SerializeCompressed(),
netParams)
if err != nil {
t.Fatalf("unable to generate mining addr: %v", err)
}
// We'll keep track of the previous block for back pointers in blocks
// we generated, and also the generated blocks along with the MTP from
// their PoV to aide with our relative time lock calculations.
var prevBlock *btcutil.Block
var blocksWithMTP []struct {
block *btcutil.Block
mtp time.Time
}
// We need to activate CSV in order to test the processing logic, so
// manually craft the block version that's used to signal the soft-fork
// activation.
csvBit := netParams.Deployments[chaincfg.DeploymentCSV].BitNumber
blockVersion := int32(0x20000000 | (uint32(1) << csvBit))
// Generate enough blocks to activate CSV, collecting each of the
// blocks into a slice for later use.
numBlocksToActivate := (netParams.MinerConfirmationWindow * 3)
for i := uint32(0); i < numBlocksToActivate; i++ {
block, err := rpctest.CreateBlock(prevBlock, nil, blockVersion,
time.Time{}, miningAddr, netParams)
if err != nil {
t.Fatalf("unable to generate block: %v", err)
}
mtp := chain.BestSnapshot().MedianTime
_, isOrphan, err := chain.ProcessBlock(block, blockchain.BFNone)
if err != nil {
t.Fatalf("ProcessBlock fail on block %v: %v\n", i, err)
}
if isOrphan {
t.Fatalf("ProcessBlock incorrectly returned block %v "+
"is an orphan\n", i)
}
blocksWithMTP = append(blocksWithMTP, struct {
block *btcutil.Block
mtp time.Time
}{
block: block,
mtp: mtp,
})
prevBlock = block
}
// Create a utxo view with all the utxos within the blocks created
// above.
utxoView := blockchain.NewUtxoViewpoint()
for blockHeight, blockWithMTP := range blocksWithMTP {
for _, tx := range blockWithMTP.block.Transactions() {
utxoView.AddTxOuts(tx, int32(blockHeight))
}
}
utxoView.SetBestHash(blocksWithMTP[len(blocksWithMTP)-1].block.Hash())
// The median time calculated from the PoV of the best block in our
// test chain. For unconfirmed inputs, this value will be used since
// the MTP will be calculated from the PoV of the yet-to-be-mined
// block.
nextMedianTime := int64(1401292712)
// We'll refer to this utxo within each input in the transactions
// created below. This utxo has an age of 4 blocks and was mined within
// block 297
targetTx := blocksWithMTP[len(blocksWithMTP)-4].block.Transactions()[0]
utxo := wire.OutPoint{
Hash: *targetTx.Hash(),
Index: 0,
}
// Obtain the median time past from the PoV of the input created above.
// The MTP for the input is the MTP from the PoV of the block *prior*
// to the one that included it.
medianTime := blocksWithMTP[len(blocksWithMTP)-5].mtp.Unix()
// Add an additional transaction which will serve as our unconfirmed
// output.
var fakeScript []byte
unConfTx := &wire.MsgTx{
TxOut: []*wire.TxOut{{
PkScript: fakeScript,
Value: 5,
}},
}
unConfUtxo := wire.OutPoint{
Hash: unConfTx.TxHash(),
Index: 0,
}
// Adding a utxo with a height of 0x7fffffff indicates that the output
// is currently unmined.
utxoView.AddTxOuts(btcutil.NewTx(unConfTx), 0x7fffffff)
tests := []struct {
tx *btcutil.Tx
view *blockchain.UtxoViewpoint
want *blockchain.SequenceLock
mempool bool
}{
// A transaction of version one should disable sequence locks
// as the new sequence number semantics only apply to
// transactions version 2 or higher.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 1,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 3),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: -1,
BlockHeight: -1,
},
},
// A transaction with a single input, that a max int sequence
// number. This sequence number has the high bit set, so
// sequence locks should be disabled.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: wire.MaxTxInSequenceNum,
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: -1,
BlockHeight: -1,
},
},
// A transaction with a single input whose lock time is
// expressed in seconds. However, the specified lock time is
// below the required floor for time based lock times since
// they have time granularity of 512 seconds. As a result, the
// seconds lock-time should be just before the median time of
// the targeted block.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(true, 2),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: medianTime - 1,
BlockHeight: -1,
},
},
// A transaction with a single input whose lock time is
// expressed in seconds. The number of seconds should be 1023
// seconds after the median past time of the last block in the
// chain.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(true, 1024),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: medianTime + 1023,
BlockHeight: -1,
},
},
// A transaction with multiple inputs. The first input has a
// sequence lock in blocks with a value of 4. The last input
// has a sequence number with a value of 5, but has the disable
// bit set. So the first lock should be selected as it's the
// target lock as its the furthest in the future lock that
// isn't disabled.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(true, 2560),
}, {
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 5) |
wire.SequenceLockTimeDisabled,
}, {
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 4),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: medianTime + (5 << wire.SequenceLockTimeGranularity) - 1,
BlockHeight: 299,
},
},
// Transaction has a single input spending the genesis block
// transaction. The input's sequence number is encodes a
// relative lock-time in blocks (3 blocks). The sequence lock
// should have a value of -1 for seconds, but a block height of
// 298 meaning it can be included at height 299.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 3),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: -1,
BlockHeight: 298,
},
},
// A transaction with two inputs with lock times expressed in
// seconds. The selected sequence lock value for seconds should
// be the time further in the future.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(true, 5120),
}, {
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(true, 2560),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: medianTime + (10 << wire.SequenceLockTimeGranularity) - 1,
BlockHeight: -1,
},
},
// A transaction with two inputs with lock times expressed in
// seconds. The selected sequence lock value for blocks should
// be the height further in the future. The converted absolute
// block height should be 302, meaning it can be included in
// block 303.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 1),
}, {
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 7),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: -1,
BlockHeight: 302,
},
},
// A transaction with multiple inputs. Two inputs are time
// based, and the other two are input maturity based. The lock
// lying further into the future for both inputs should be
// chosen.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(true, 2560),
}, {
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(true, 6656),
}, {
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 3),
}, {
PreviousOutPoint: utxo,
Sequence: blockchain.LockTimeToSequence(false, 9),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: medianTime + (13 << wire.SequenceLockTimeGranularity) - 1,
BlockHeight: 304,
},
},
// A transaction with a single unconfirmed input. As the input
// is confirmed, the height of the input should be interpreted
// as the height of the *next* block. The current block height
// is 300, so the lock time should be calculated using height
// 301 as a base. A 2 block relative lock means the transaction
// can be included after block 302, so in 303.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: unConfUtxo,
Sequence: blockchain.LockTimeToSequence(false, 2),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: -1,
BlockHeight: 302,
},
},
// A transaction with a single unconfirmed input. The input has
// a time based lock, so the lock time should be based off the
// MTP of the *next* block.
{
tx: btcutil.NewTx(&wire.MsgTx{
Version: 2,
TxIn: []*wire.TxIn{{
PreviousOutPoint: unConfUtxo,
Sequence: blockchain.LockTimeToSequence(true, 1024),
}},
}),
view: utxoView,
want: &blockchain.SequenceLock{
Seconds: nextMedianTime + 1023,
BlockHeight: -1,
},
},
}
t.Logf("Running %v SequenceLock tests", len(tests))
for i, test := range tests {
seqLock, err := chain.CalcSequenceLock(test.tx, test.view, test.mempool)
if err != nil {
t.Fatalf("test #%d, unable to calc sequence lock: %v", i, err)
}
if seqLock.Seconds != test.want.Seconds {
t.Fatalf("test #%d got %v seconds want %v seconds",
i, seqLock.Seconds, test.want.Seconds)
}
if seqLock.BlockHeight != test.want.BlockHeight {
t.Fatalf("test #%d got height of %v want height of %v ",
i, seqLock.BlockHeight, test.want.BlockHeight)
}
}
}
