def makeorder(client, address, currency, amount, tokenprice, key):
utxos = client_call(client.get_utxos, [address, currency])
amount = int(amount * 1e18)
# Find a utxos with enough tokens
for utxo in utxos:
if utxo[3] >= amount:
# generate the transaction object
change_amount = utxo[3] - amount
if change_amount:
tx = Transaction(Transaction.TxnType.make_order,
utxo[0], utxo[1], utxo[2],
0, 0, 0,
Transaction.UTXOType.make_order, utils.normalize_address(address), amount, tokenprice, utils.normalize_address(currency),
Transaction.UTXOType.transfer, utils.normalize_address(address), change_amount, 0, utils.normalize_address(currency),
0, NULL_ADDRESS, 0, 0, NULL_ADDRESS,
0, NULL_ADDRESS, 0, 0, NULL_ADDRESS)
else:
tx = Transaction(Transaction.TxnType.make_order,
utxo[0], utxo[1], utxo[2],
0, 0, 0,
Transaction.UTXOType.make_order, utils.normalize_address(address), amount, tokenprice, utils.normalize_address(currency),
0, NULL_ADDRESS, 0, 0, NULL_ADDRESS,
0, NULL_ADDRESS, 0, 0, NULL_ADDRESS,
0, NULL_ADDRESS, 0, 0, NULL_ADDRESS)
tx.sign1(utils.normalize_key(key))
client_call(client.apply_transaction, [tx], "Sent transaction")
break
def sendtx(client, blknum1, txindex1, oindex1, blknum2, txindex2, oindex2,
newowner1, contractaddress1, amount1, tokenid1, newowner2,
contractaddress2, amount2, tokenid2, key1, key2):
if newowner1 == "0x0":
newowner1 = NULL_ADDRESS
if newowner2 == "0x0":
newowner2 = NULL_ADDRESS
if contractaddress1 == "0x0":
contractaddress1 = NULL_ADDRESS
if contractaddress2 == "0x0":
contractaddress2 = NULL_ADDRESS
if key2 is None:
key2 = key1
# Form a transaction
tx = Transaction(blknum1, txindex1, oindex1, blknum2, txindex2, oindex2,
utils.normalize_address(newowner1),
utils.normalize_address(contractaddress1), amount1,
tokenid1, utils.normalize_address(newowner2),
utils.normalize_address(contractaddress2), amount2,
tokenid2)
# Sign it
tx.sign1(utils.normalize_key(key1))
tx.sign2(utils.normalize_key(key2))
client.apply_transaction(tx)
print("Sent transaction")
def test_challenge_exit(t, u, root_chain):
owner, value_1, key = t.a1, 100, t.k1
null_address = b'\x00' * 20
tx1 = Transaction(0, 0, 0, 0, 0, 0, owner, value_1, null_address, 0, 0)
tx_bytes1 = rlp.encode(tx1, UnsignedTransaction)
dep1_blknum = root_chain.getDepositBlock()
root_chain.deposit(tx_bytes1, value=value_1)
merkle = FixedMerkle(16, [tx1.merkle_hash], True)
proof = merkle.create_membership_proof(tx1.merkle_hash)
confirmSig1 = confirm_tx(tx1,
root_chain.getChildChain(dep1_blknum)[0], key)
sigs = tx1.sig1 + tx1.sig2 + confirmSig1
exitId1 = dep1_blknum * 1000000000 + 10000 * 0 + 0
root_chain.startExit(exitId1, tx_bytes1, proof, sigs, sender=key)
tx2 = Transaction(dep1_blknum, 0, 0, 0, 0, 0, owner, value_1, null_address,
0, 0)
tx2.sign1(key)
tx_bytes2 = rlp.encode(tx2, UnsignedTransaction)
merkle = FixedMerkle(16, [tx2.merkle_hash], True)
proof = merkle.create_membership_proof(tx2.merkle_hash)
child_blknum = root_chain.currentChildBlock()
root_chain.submitBlock(merkle.root)
confirmSig = confirm_tx(tx2,
root_chain.getChildChain(child_blknum)[0], key)
sigs = tx2.sig1 + tx2.sig2
exitId2 = child_blknum * 1000000000 + 10000 * 0 + 0
assert root_chain.exits(exitId1) == ['0x' + owner.hex(), 100, exitId1]
assert root_chain.exitIds(exitId1) == exitId1
root_chain.challengeExit(exitId2, exitId1, tx_bytes2, proof, sigs,
confirmSig)
assert root_chain.exits(exitId1) == [
'0x0000000000000000000000000000000000000000', 0, 0
]
assert root_chain.exitIds(exitId1) == 0
def test_start_exit(t, root_chain, assert_tx_failed):
week_and_a_half = 60 * 60 * 24 * 13
owner, value_1, key = t.a1, 100, t.k1
null_address = b'\x00' * 20
tx1 = Transaction(0, 0, 0, 0, 0, 0, owner, value_1, null_address, 0, 0)
tx_bytes1 = rlp.encode(tx1, UnsignedTransaction)
root_chain.deposit(tx_bytes1, value=value_1)
merkle = FixedMerkle(16, [tx1.merkle_hash], True)
proof = merkle.create_membership_proof(tx1.merkle_hash)
confirmSig1 = confirm_tx(tx1, root_chain.getChildChain(1)[0], key)
priority1 = 1 * 1000000000 + 10000 * 0 + 0
snapshot = t.chain.snapshot()
sigs = tx1.sig1 + tx1.sig2 + confirmSig1
# Deposit exit
root_chain.startExit([1, 0, 0], tx_bytes1, proof, sigs, sender=key)
t.chain.head_state.timestamp += week_and_a_half
# Cannot exit twice off of the same utxo
assert_tx_failed(lambda: root_chain.startExit(
[1, 0, 0], tx_bytes1, proof, sigs, sender=key))
assert root_chain.getExit(priority1) == [
'0x' + owner.hex(), 100, [1, 0, 0]
]
t.chain.revert(snapshot)
tx2 = Transaction(1, 0, 0, 0, 0, 0, owner, value_1, null_address, 0, 0)
tx2.sign1(key)
tx_bytes2 = rlp.encode(tx2, UnsignedTransaction)
merkle = FixedMerkle(16, [tx2.merkle_hash], True)
proof = merkle.create_membership_proof(tx2.merkle_hash)
t.chain.head_state.block_number += 7
root_chain.submitBlock(merkle.root)
confirmSig1 = confirm_tx(tx2, root_chain.getChildChain(2)[0], key)
priority2 = 2 * 1000000000 + 10000 * 0 + 0
sigs = tx2.sig1 + tx2.sig2 + confirmSig1
snapshot = t.chain.snapshot()
# Single input exit
root_chain.startExit([2, 0, 0], tx_bytes2, proof, sigs, sender=key)
assert root_chain.getExit(priority2) == [
'0x' + owner.hex(), 100, [2, 0, 0]
]
t.chain.revert(snapshot)
root_chain.deposit(tx_bytes1, value=value_1)
tx3 = Transaction(2, 0, 0, 3, 0, 0, owner, value_1, null_address, 0, 0)
tx3.sign1(key)
tx3.sign2(key)
tx_bytes3 = rlp.encode(tx3, UnsignedTransaction)
merkle = FixedMerkle(16, [tx3.merkle_hash], True)
proof = merkle.create_membership_proof(tx3.merkle_hash)
t.chain.head_state.block_number += 7
root_chain.submitBlock(merkle.root)
confirmSig1 = confirm_tx(tx3, root_chain.getChildChain(4)[0], key)
confirmSig2 = confirm_tx(tx3, root_chain.getChildChain(4)[0], key)
priority3 = 4 * 1000000000 + 10000 * 0 + 0
sigs = tx3.sig1 + tx3.sig2 + confirmSig1 + confirmSig2
# Double input exit
root_chain.startExit([4, 0, 0], tx_bytes3, proof, sigs, sender=key)
assert root_chain.getExit(priority3) == [
'0x' + owner.hex(), 100, [4, 0, 0]
]
def test_challenge_exit(t, u, root_chain):
owner, value_1, key = t.a1, 100, t.k1
null_address = b'\x00' * 20
tx1 = Transaction(0, 0, 0, 0, 0, 0,
owner, value_1, null_address, 0, 0)
tx_bytes1 = rlp.encode(tx1, UnsignedTransaction)
root_chain.deposit(tx_bytes1, value=value_1)
merkle = FixedMerkle(16, [tx1.merkle_hash], True)
proof = merkle.create_membership_proof(tx1.merkle_hash)
confirmSig1 = confirm_tx(tx1, root_chain.getChildChain(1)[0], key)
sigs = tx1.sig1 + tx1.sig2 + confirmSig1
root_chain.startExit([1, 0, 0], tx_bytes1, proof, sigs, sender=key)
tx2 = Transaction(1, 0, 0, 0, 0, 0,
owner, value_1, null_address, 0, 0)
tx2.sign1(key)
tx_bytes2 = rlp.encode(tx2, UnsignedTransaction)
merkle = FixedMerkle(16, [tx2.merkle_hash], True)
proof = merkle.create_membership_proof(tx2.merkle_hash)
t.chain.head_state.block_number += 7
root_chain.submitBlock(merkle.root)
confirmSig = confirm_tx(tx2, root_chain.getChildChain(2)[0], key)
sigs = tx2.sig1 + tx2.sig2
exit_id = 1 * 1000000000 + 10000 * 0 + 0
assert root_chain.exits(exit_id) == ['0x' + owner.hex(), 100]
assert root_chain.exitIds(exit_id) == exit_id
root_chain.challengeExit(exit_id, [2, 0, 0], tx_bytes2, proof, sigs, confirmSig)
assert root_chain.exits(exit_id) == ['0x0000000000000000000000000000000000000000', 0]
assert root_chain.exitIds(exit_id) == 0
def create_utxo(self, to_contractaddress, provide_amount):
utxos = self.get_utxos()
for blknum, txindex, oindex, contractaddress, amount, tokenid in utxos:
if contractaddress.lower() == to_contractaddress[2:].lower():
if amount == provide_amount:
return blknum, txindex, oindex, contractaddress, amount, tokenid
for blknum, txindex, oindex, contractaddress, amount, tokenid in utxos:
if contractaddress.lower() == to_contractaddress[2:].lower():
if amount > provide_amount:
tx = Transaction(blknum, txindex, oindex, 0, 0, 0,
utils.normalize_address(self.address),
utils.normalize_address(contractaddress),
provide_amount, 0,
utils.normalize_address(self.address),
utils.normalize_address(contractaddress),
amount - provide_amount, 0)
tx.sign1(
utils.normalize_key(plasma_config["AUTHORITY_KEY"]))
tx.sign2(
utils.normalize_key(plasma_config["AUTHORITY_KEY"]))
self.child_chain.apply_transaction(
rlp.encode(tx, Transaction).hex())
break
else:
raise ValueError("no available utxo")
utxos = self.get_utxos()
for blknum, txindex, oindex, contractaddress, amount, tokenid in utxos:
if contractaddress.lower() == to_contractaddress[2:].lower():
if amount == provide_amount:
return blknum, txindex, oindex, contractaddress, amount, tokenid
raise Exception("Something went wrong")
def test_transaction(t):
blknum1, txindex1, oindex1 = 1, 1, 0
blknum2, txindex2, oindex2 = 2, 2, 1
newowner1, amount1 = t.a1, 100
newowner2, amount2 = t.a2, 150
fee = 5
oldowner1, oldowner2 = t.a1, t.a2
key1, key2 = t.k1, t.k2
tx = Transaction(blknum1, txindex1, oindex1,
blknum2, txindex2, oindex2,
newowner1, amount1,
newowner2, amount2,
fee)
assert tx.blknum1 == blknum1
assert tx.txindex1 == txindex1
assert tx.oindex1 == oindex1
assert tx.blknum2 == blknum2
assert txindex2 == txindex2
assert tx.oindex2 == oindex2
assert tx.newowner1 == newowner1
assert tx.amount1 == amount1
assert tx.newowner2 == newowner2
assert tx.amount2 == amount2
assert tx.sig1 == b'\x00' * 65
assert tx.sig2 == b'\x00' * 65
tx.sign1(key1)
assert tx.sender1 == oldowner1
tx.sign2(key2)
assert tx.sender2 == oldowner2
def test_send_tx_with_sig(child_chain):
tx3 = Transaction(1, 0, 0, 1, 1, 0, newowner1, amount2, b'\x00' * 20, 0, 0)
# Sign the transaction
tx3.sign1(tx_key)
tx3.sign2(tx_key)
child_chain.apply_transaction(rlp.encode(tx3).hex())
def test_send_tx_invalid_sig(child_chain):
tx3 = Transaction(1, 0, 0, 1, 1, 0, newowner1, amount2, b'\x00' * 20, 0, 0)
# Sign with an invalid key
tx3.sign1(invalid_tx_key)
tx3.sign2(invalid_tx_key)
with pytest.raises(InvalidTxSignatureException):
child_chain.apply_transaction(rlp.encode(tx3).hex())
def test_challenge_exit(t, u, root_chain, assert_tx_failed):
owner, value_1, key = t.a1, 100, t.k1
null_address = b'\x00' * 20
tx1 = Transaction(0, 0, 0, 0, 0, 0, owner, value_1, null_address, 0, 0)
deposit_tx_hash = get_deposit_hash(owner, value_1)
utxo_pos1 = root_chain.getDepositBlock() * 1000000000 + 1
root_chain.deposit(value=value_1, sender=key)
utxo_pos2 = root_chain.getDepositBlock() * 1000000000
root_chain.deposit(value=value_1, sender=key)
merkle = FixedMerkle(16, [deposit_tx_hash], True)
proof = merkle.create_membership_proof(deposit_tx_hash)
confirmSig1 = confirm_tx(tx1, root_chain.getChildChain(utxo_pos1)[0], key)
sigs = tx1.sig1 + tx1.sig2 + confirmSig1
root_chain.startDepositExit(utxo_pos1, tx1.amount1, sender=key)
tx3 = Transaction(utxo_pos2, 0, 0, 0, 0, 0, owner, value_1, null_address,
0, 0)
tx3.sign1(key)
tx_bytes3 = rlp.encode(tx3, UnsignedTransaction)
merkle = FixedMerkle(16, [tx3.merkle_hash], True)
proof = merkle.create_membership_proof(tx3.merkle_hash)
child_blknum = root_chain.currentChildBlock()
root_chain.submitBlock(merkle.root)
confirmSig = confirm_tx(tx3,
root_chain.getChildChain(child_blknum)[0], key)
sigs = tx3.sig1 + tx3.sig2
utxo_pos3 = child_blknum * 1000000000 + 10000 * 0 + 0
tx4 = Transaction(utxo_pos1, 0, 0, 0, 0, 0, owner, value_1, null_address,
0, 0)
tx4.sign1(key)
tx_bytes4 = rlp.encode(tx4, UnsignedTransaction)
merkle = FixedMerkle(16, [tx4.merkle_hash], True)
proof = merkle.create_membership_proof(tx4.merkle_hash)
child_blknum = root_chain.currentChildBlock()
root_chain.submitBlock(merkle.root)
confirmSig = confirm_tx(tx4,
root_chain.getChildChain(child_blknum)[0], key)
sigs = tx4.sig1 + tx4.sig2
utxo_pos4 = child_blknum * 1000000000 + 10000 * 0 + 0
oindex1 = 0
assert root_chain.exits(utxo_pos1) == ['0x' + owner.hex(), 100]
# Fails if transaction after exit doesn't reference the utxo being exited
assert_tx_failed(lambda: root_chain.challengeExit(
utxo_pos3, utxo_pos1, tx_bytes3, proof, sigs, confirmSig))
# Fails if transaction proof is incorrect
assert_tx_failed(lambda: root_chain.challengeExit(
utxo_pos4, utxo_pos1, tx_bytes4, proof[::-1], sigs, confirmSig))
# Fails if transaction confirmation is incorrect
assert_tx_failed(lambda: root_chain.challengeExit(
utxo_pos4, utxo_pos1, tx_bytes4, proof, sigs, confirmSig[::-1]))
root_chain.challengeExit(utxo_pos4, oindex1, tx_bytes4, proof, sigs,
confirmSig)
assert root_chain.exits(utxo_pos1) == [
'0x0000000000000000000000000000000000000000', value_1
]
def test_send_tx_double_spend(child_chain, u):
tx3 = Transaction(1, 0, 0, 1, 1, 0, newowner1, amount2, b'\x00' * 20, 0, 0)
tx3.sign1(key1)
tx3.sign2(key1)
# Submit once
child_chain.apply_transaction(rlp.encode(tx3).hex())
# Try to submit again
with pytest.raises(AssertionError):
child_chain.apply_transaction(rlp.encode(tx3).hex())
def test_send_tx_with_sig(child_chain):
# Valid key
key = b'8b76243a95f959bf101248474e6bdacdedc8ad995d287c24616a41bd51642965'
newowner, amount2 = '0x4b3ec6c9dc67079e82152d6d55d8dd96a8e6aa26', 400
tx3 = Transaction(1, 0, 0, 1, 1, 0, newowner, amount2, b'\x00' * 20, 0, 0)
# Sign the transaction
tx3.sign1(key)
tx3.sign2(key)
child_chain.apply_transaction(rlp.encode(tx3).hex())
def test_send_tx_double_spend(child_chain):
tx3 = Transaction(1, 0, 0, 1, 1, 0, newowner1, amount2, b'\x00' * 20, 0, 0)
tx3.sign1(tx_key)
tx3.sign2(tx_key)
# Submit once
child_chain.apply_transaction(rlp.encode(tx3).hex())
# Try to submit again
with pytest.raises(TxAlreadySpentException):
child_chain.apply_transaction(rlp.encode(tx3).hex())
def test_send_tx_invalid_sig(child_chain):
# Invalid key
key = b'8a76243a95f959bf101248474e6bdacdedc8ad995d287c24616a41bd51642965'
newowner, amount2 = '0x4b3ec6c9dc67079e82152d6d55d8dd96a8e6aa26', 400
tx3 = Transaction(1, 0, 0, 1, 1, 0, newowner, amount2, b'\x00' * 20, 0, 0)
# Sign with an invalid key
tx3.sign1(key)
tx3.sign2(key)
with pytest.raises(AssertionError):
child_chain.apply_transaction(rlp.encode(tx3).hex())
def transfer(self,
input1,
oindex1,
newowner1,
amount1,
signatory1,
input2=None,
oindex2=0,
newowner2=None,
amount2=None,
signatory2=None):
newowner_address1 = newowner1['address']
amount1 = int(amount1)
newowner_address2 = NULL_ADDRESS
if newowner2 is not None:
newowner_address2 = newowner2['address']
amount2 = int(amount2) if amount2 is not None else 0
encoded_input_tx1 = rlp.encode(self.transactions[input1]['tx']).hex()
blknum1, txindex1 = self.child_chain.get_tx_pos(encoded_input_tx1)
blknum2, txindex2 = 0, 0
if input2 is not None:
encoded_input_tx2 = rlp.encode(
self.transactions[input2]['tx']).hex()
blknum2, txindex2 = self.child_chain.get_tx_pos(encoded_input_tx2)
tx = Transaction(blknum1, txindex1, oindex1, blknum2, txindex2,
oindex2, newowner_address1, amount1,
newowner_address2, amount2)
if signatory1 is not None:
key1 = signatory1['key']
tx.sign1(key1)
if signatory2 is not None:
key2 = signatory2['key']
tx.sign2(key2)
encoded_tx = rlp.encode(tx).hex()
self.child_chain.apply_transaction(encoded_tx)
self.transactions.append({
'tx': tx,
'confirm_sigs': b'',
'is_deposit': False
})
return len(self.transactions) - 1
def test_send_tx_double_spend(child_chain):
key = b'8b76243a95f959bf101248474e6bdacdedc8ad995d287c24616a41bd51642965'
newowner, amount2 = '0x4b3ec6c9dc67079e82152d6d55d8dd96a8e6aa26', 400
tx3 = Transaction(1, 0, 0, 1, 1, 0, newowner, amount2, b'\x00' * 20, 0, 0)
tx3.sign1(key)
tx3.sign2(key)
# Submit once
child_chain.apply_transaction(rlp.encode(tx3).hex())
# Try to submit again
with pytest.raises(AssertionError):
child_chain.apply_transaction(rlp.encode(tx3).hex())
def create_partially_signed_transaction(self, from_contractaddress,
to_contractaddress, amount):
exchange_rate = self.get_exchange_rate(from_contractaddress,
to_contractaddress, amount)
if exchange_rate is None:
return None
provide_amount = amount * exchange_rate
blknum1, txindex1, oindex1, contractaddress2, amount2, tokenid2 = self.create_utxo(
to_contractaddress, provide_amount)
ps_tx = Transaction(
blknum1, txindex1, oindex1, 0, 0, 0,
utils.normalize_address(self.address), b'\x00' *
20 if from_contractaddress == "0x0" else from_contractaddress,
amount, 0, b'\x00' * 20, contractaddress2, amount2, tokenid2)
ps_tx.sign1(utils.normalize_key(plasma_config["AUTHORITY_KEY"]))
return ps_tx.to_json()
def sendtx(client, blknum1, txindex1, oindex1, blknum2, txindex2, oindex2,
amount1, newowner1, amount2, newowner2, fee, key1, key2):
if newowner1 == "0x0":
newowner1 = NULL_ADDRESS
if newowner2 == "0x0":
newowner2 = NULL_ADDRESS
# Form a transaction
tx = Transaction(blknum1, txindex1, oindex1, blknum2, txindex2, oindex2,
utils.normalize_address(newowner1), amount1,
utils.normalize_address(newowner2), amount2, fee)
# Sign it
if key1:
tx.sign1(utils.normalize_key(key1))
if key2:
tx.sign2(utils.normalize_key(key2))
client_call(client.apply_transaction, [tx], "Sent transaction")
def send_tx(self):
if len(self.inp) != 14 and len(self.inp) != 13:
raise Exception(
"Wrong number of inputs for sending a transaction!")
blknum1, tx_pos1, utxo_pos1 = int(self.inp[1]), int(self.inp[2]), int(
self.inp[3])
blknum2, tx_pos2, utxo_pos2 = int(self.inp[4]), int(self.inp[5]), int(
self.inp[6])
newowner1 = utils.normalize_address(self.inp[7])
amount1 = int(self.inp[8])
newowner2 = utils.normalize_address(self.inp[9])
amount2 = int(self.inp[10])
fee = int(self.inp[11])
key1 = utils.normalize_key(self.inp[12])
key2 = utils.normalize_key(self.inp[13]) if len(
self.inp) == 14 else b''
tx = Transaction(blknum1, tx_pos1, utxo_pos1, blknum2, tx_pos2,
utxo_pos2, newowner1, amount1, newowner2, amount2,
fee)
tx.sign1(key1)
if key2:
tx.sign2(key2)
self.client.apply_transaction(tx)
print("Succesfully added transaction!")
def test_start_exit(t, root_chain, assert_tx_failed):
week_and_a_half = 60 * 60 * 24 * 13
owner, value_1, key = t.a1, 100, t.k1
null_address = b'\x00' * 20
tx1 = Transaction(0, 0, 0, 0, 0, 0, null_address, owner, value_1,
null_address, 0)
deposit_tx_hash = get_deposit_hash(owner, null_address, value_1)
dep_blknum = root_chain.getDepositBlock()
assert dep_blknum == 1
root_chain.deposit(value=value_1, sender=key)
merkle = FixedMerkle(16, [deposit_tx_hash], True)
proof = merkle.create_membership_proof(deposit_tx_hash)
confirmSig1 = confirm_tx(tx1, root_chain.getChildChain(dep_blknum)[0], key)
priority1 = dep_blknum * 1000000000 + 10000 * 0 + 1
snapshot = t.chain.snapshot()
sigs = tx1.sig1 + tx1.sig2 + confirmSig1
utxoId = dep_blknum * 1000000000 + 10000 * 0 + 1
# Deposit exit
root_chain.startDepositExit(utxoId, null_address, tx1.amount1, sender=key)
t.chain.head_state.timestamp += week_and_a_half
# Cannot exit twice off of the same utxo
utxo_pos1 = dep_blknum * 1000000000 + 10000 * 0 + 1
assert_tx_failed(lambda: root_chain.startExit(
utxo_pos1, deposit_tx_hash, proof, sigs, sender=key))
enc_null_address = "0x" + "00" * 20
assert root_chain.getExit(priority1) == [
'0x' + owner.hex(), enc_null_address, 100
]
t.chain.revert(snapshot)
tx2 = Transaction(dep_blknum, 0, 0, 0, 0, 0, null_address, owner, value_1,
null_address, 0)
tx2.sign1(key)
tx_bytes2 = rlp.encode(tx2, UnsignedTransaction)
merkle = FixedMerkle(16, [tx2.merkle_hash], True)
proof = merkle.create_membership_proof(tx2.merkle_hash)
child_blknum = root_chain.currentChildBlock()
assert child_blknum == 1000
root_chain.submitBlock(merkle.root)
confirmSig1 = confirm_tx(tx2,
root_chain.getChildChain(child_blknum)[0], key)
priority2 = child_blknum * 1000000000 + 10000 * 0 + 0
sigs = tx2.sig1 + tx2.sig2 + confirmSig1
snapshot = t.chain.snapshot()
# # Single input exit
utxo_pos2 = child_blknum * 1000000000 + 10000 * 0 + 0
root_chain.startExit(utxo_pos2, tx_bytes2, proof, sigs, sender=key)
assert root_chain.getExit(priority2) == [
'0x' + owner.hex(), enc_null_address, 100
]
t.chain.revert(snapshot)
dep2_blknum = root_chain.getDepositBlock()
assert dep2_blknum == 1001
root_chain.deposit(value=value_1, sender=key)
tx3 = Transaction(child_blknum, 0, 0, dep2_blknum, 0, 0, null_address,
owner, value_1, null_address, 0, 0)
tx3.sign1(key)
tx3.sign2(key)
tx_bytes3 = rlp.encode(tx3, UnsignedTransaction)
merkle = FixedMerkle(16, [tx3.merkle_hash], True)
proof = merkle.create_membership_proof(tx3.merkle_hash)
child2_blknum = root_chain.currentChildBlock()
assert child2_blknum == 2000
root_chain.submitBlock(merkle.root)
confirmSig1 = confirm_tx(tx3,
root_chain.getChildChain(child2_blknum)[0], key)
confirmSig2 = confirm_tx(tx3,
root_chain.getChildChain(child2_blknum)[0], key)
priority3 = child2_blknum * 1000000000 + 10000 * 0 + 0
sigs = tx3.sig1 + tx3.sig2 + confirmSig1 + confirmSig2
# Double input exit
utxoPos3 = child2_blknum * 1000000000 + 10000 * 0 + 0
root_chain.startExit(utxoPos3, tx_bytes3, proof, sigs, sender=key)
assert root_chain.getExit(priority3) == [
'0x' + owner.hex(), enc_null_address, 100
]
