def run_test(self):
# Prevent easysolc from configuring the root logger to print to stderr
self.log.propagate = False
solc = Solc()
erc20_contract = solc.get_contract_instance(
source=os.path.dirname(os.path.realpath(__file__)) + "/erc20.sol",
contract_name="FixedSupplyToken")
start_p2p_connection(self.nodes)
self.log.info("Initializing contract")
genesis_key = default_config["GENESIS_PRI_KEY"]
genesis_addr = privtoaddr(genesis_key)
nonce = 0
gas_price = 1
gas = 50000000
block_gen_thread = BlockGenThread(self.nodes, self.log)
block_gen_thread.start()
self.tx_conf = {
"from": Web3.toChecksumAddress(encode_hex_0x(genesis_addr)),
"nonce": int_to_hex(nonce),
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price)
}
raw_create = erc20_contract.constructor().buildTransaction(
self.tx_conf)
tx_data = decode_hex(raw_create["data"])
tx_create = create_transaction(pri_key=genesis_key,
receiver=b'',
nonce=nonce,
gas_price=gas_price,
data=tx_data,
gas=gas,
value=0)
self.nodes[0].p2p.send_protocol_msg(
Transactions(transactions=[tx_create]))
self.wait_for_tx([tx_create])
self.log.info("Contract created, start transfering tokens")
tx_n = 10
self.tx_conf["to"] = Web3.toChecksumAddress(
encode_hex_0x(sha3_256(rlp.encode([genesis_addr, nonce]))[-20:]))
nonce += 1
balance_map = {genesis_key: 1000000 * 10**18}
sender_key = genesis_key
all_txs = []
for i in range(tx_n):
value = int((balance_map[sender_key] -
((tx_n - i) * 21000 * gas_price)) * random.random())
receiver_sk, _ = ec_random_keys()
balance_map[receiver_sk] = value
tx_data = decode_hex(
erc20_contract.functions.transfer(
Web3.toChecksumAddress(encode_hex(
privtoaddr(receiver_sk))),
value).buildTransaction(self.tx_conf)["data"])
tx = create_transaction(pri_key=sender_key,
receiver=decode_hex(self.tx_conf["to"]),
value=0,
nonce=nonce,
gas=gas,
gas_price=gas_price,
data=tx_data)
r = random.randint(0, self.num_nodes - 1)
self.nodes[r].p2p.send_protocol_msg(
Transactions(transactions=[tx]))
nonce += 1
balance_map[sender_key] -= value
all_txs.append(tx)
self.log.info("Wait for transactions to be executed")
self.wait_for_tx(all_txs)
self.log.info("Check final token balance")
for sk in balance_map:
addr = privtoaddr(sk)
assert_equal(self.get_balance(erc20_contract, addr, nonce),
balance_map[sk])
block_gen_thread.stop()
block_gen_thread.join()
sync_blocks(self.nodes)
self.log.info("Pass")
def run_test(self):
priv_key = default_config["GENESIS_PRI_KEY"]
sender = eth_utils.encode_hex(priv_to_addr(priv_key))
# deploy contract
bytecode_file = os.path.join(os.path.dirname(os.path.realpath(__file__)), CONTRACT_PATH)
assert(os.path.isfile(bytecode_file))
bytecode = open(bytecode_file).read()
_, contractAddr = self.deploy_contract(sender, priv_key, bytecode)
self.log.info("contract deployed")
contract_epoch = hex(self.rpc[FULLNODE0].epoch_number())
# call method once
receipt = self.call_contract(sender, priv_key, contractAddr, encode_hex_0x(keccak(b"foo()")))
call_epoch = hex(self.rpc[FULLNODE0].epoch_number())
# deploy another instance of the contract
_, contractAddr2 = self.deploy_contract(sender, priv_key, bytecode)
# call method multiple times
for ii in range(0, NUM_CALLS - 3):
self.call_contract(sender, priv_key, contractAddr, encode_hex_0x(keccak(b"foo()")))
# make sure we have enough blocks to be certain about the validity of previous blocks
self.log.info("generating blocks...")
for _ in range(50):
self.generate_correct_block(FULLNODE0)
self.log.info("syncing full nodes...")
sync_blocks(self.nodes[FULLNODE0:FULLNODE1])
# connect light node to full nodes
connect_nodes(self.nodes, LIGHTNODE, FULLNODE0)
connect_nodes(self.nodes, LIGHTNODE, FULLNODE1)
# make sure we all nodes are in sync
self.log.info("syncing light node...")
sync_blocks(self.nodes[:])
# retrieve contract code
self.log.info("retrieving contract code...")
self.check_code(contractAddr, contract_epoch)
# apply filter, we expect a single log with 2 topics
self.log.info("testing filter range...")
self.check_filter(Filter(from_epoch="earliest", to_epoch=contract_epoch))
self.check_filter(Filter(from_epoch="earliest", to_epoch=call_epoch))
self.check_filter(Filter())
self.check_filter(Filter(from_epoch="0x0", to_epoch="0x0"))
# apply filter for specific block, we expect a single log with 3 topics
self.check_filter(Filter(block_hashes=[receipt["blockHash"]]))
# apply filter for specific topics
self.log.info("testing filter topics...")
self.check_filter(Filter(topics=[CONSTRUCTED_TOPIC]))
self.check_filter(Filter(topics=[FOO_TOPIC]))
self.check_filter(Filter(topics=[None, self.address_to_topic(sender)]))
self.check_filter(Filter(topics=[FOO_TOPIC, None, [self.number_to_topic(3), self.number_to_topic(4)]]))
# apply filter with limit
self.log.info("testing filter limit...")
self.check_filter(Filter(limit=("0x%x" % (NUM_CALLS // 2))))
# apply filter for specific contract address
self.log.info("testing address filtering...")
self.check_filter(Filter(address=[contractAddr]))
self.check_filter(Filter(address=[contractAddr2]))
self.log.info("Pass")
def run_test(self):
file_path = os.path.dirname(os.path.realpath(__file__)).split("/")
file_path.pop(-1)
file_path.extend(["internal_contract", "metadata", "Staking.json"])
file_path = "/".join(file_path)
staking_contract_dict = json.loads(
open(os.path.join(file_path), "r").read())
staking_contract = get_contract_instance(
contract_dict=staking_contract_dict)
staking_contract_addr = Web3.toChecksumAddress(
"0888000000000000000000000000000000000002")
self.problem = "0x2bc79b7514884ab00da924607d71542cc4fed3beb8518e747726ae30ab6c7944"
self.solution = "0xc4d2751c52311d0d7efe44e5c4195e058ad5ef4bb89b3e1761b24dc277b132c2"
self.priv_key = default_config["GENESIS_PRI_KEY"]
self.sender = encode_hex_0x(priv_to_addr(self.priv_key))
self.sender_checksum = Web3.toChecksumAddress(self.sender)
self.pub = []
self.pri = []
self.rpc = RpcClient(self.nodes[0])
gas = CONTRACT_DEFAULT_GAS
gas_price = 10
# lock token for genesis account
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.tx_conf['to'] = staking_contract_addr
tx_data = decode_hex(
staking_contract.functions.deposit(
1000000 * 10**18).buildTransaction(self.tx_conf)["data"])
tx = self.rpc.new_tx(value=0,
receiver=staking_contract_addr,
data=tx_data,
gas=gas,
gas_price=gas_price)
self.rpc.send_tx(tx, True)
for i in range(10):
priv_key = random.randint(0, 2**256).to_bytes(32, "big")
pub_key = encode_hex_0x(priv_to_addr(priv_key))
self.pub.append(pub_key)
self.pri.append(priv_key)
transaction = self.rpc.new_tx(sender=self.sender,
receiver=pub_key,
value=1000000 * 10**18,
priv_key=self.priv_key)
self.rpc.send_tx(transaction, True)
# deposit 10000 tokens
tx_data = decode_hex(
staking_contract.functions.deposit(
10000 * 10**18).buildTransaction(self.tx_conf)["data"])
tx = self.rpc.new_tx(value=0,
sender=pub_key,
receiver=self.tx_conf["to"],
gas=gas,
data=tx_data,
priv_key=priv_key)
self.rpc.send_tx(tx)
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.filter = Filter(from_epoch="earliest", to_epoch="latest_state")
self.testEventContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testBallotContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testPayContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testHTLCContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testDaiContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testMappingContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testDaiJoinContract()
self.log.info("Pass")
def run_test(self):
# Prevent easysolc from configuring the root logger to print to stderr
self.log.propagate = False
solc = Solc()
file_dir = os.path.dirname(os.path.realpath(__file__))
staking_contract = solc.get_contract_instance(
abi_file=os.path.join(
file_dir, "contracts/storage_interest_staking_abi.json"),
bytecode_file=os.path.join(
file_dir, "contracts/storage_interest_staking_bytecode.dat"),
)
commission_privilege_contract = solc.get_contract_instance(
abi_file=os.path.join(
file_dir, "contracts/commission_privilege_control_abi.json"),
bytecode_file=os.path.join(
file_dir,
"contracts/commission_privilege_control_bytecode.dat"),
)
start_p2p_connection(self.nodes)
self.log.info("Initializing contract")
genesis_key = self.genesis_priv_key
genesis_addr = self.genesis_addr
self.log.info("genesis_addr={}".format(encode_hex_0x(genesis_addr)))
nonce = 0
gas_price = 1
gas = 50000000
block_gen_thread = BlockGenThread(self.nodes, self.log)
block_gen_thread.start()
self.tx_conf = {
"from": Web3.toChecksumAddress(encode_hex_0x(genesis_addr)),
"nonce": int_to_hex(nonce),
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
# Setup balance for node 0
node = self.nodes[0]
client = RpcClient(node)
(addr, priv_key) = client.rand_account()
self.log.info("addr=%s priv_key=%s", addr, priv_key)
tx = client.new_tx(value=5 * 10**18,
receiver=addr,
nonce=self.get_nonce(genesis_addr))
client.send_tx(tx, True)
assert_equal(node.cfx_getBalance(addr), hex(5000000000000000000))
assert_equal(node.cfx_getBankBalance(addr), hex(0))
self.tx_conf["to"] = Web3.toChecksumAddress(
"443c409373ffd5c0bec1dddb7bec830856757b65")
# deposit 2 * 10**18 / 16
tx_data = decode_hex(
staking_contract.functions.deposit(
2 * 10**18 // 16).buildTransaction(self.tx_conf)["data"])
tx = client.new_tx(value=0,
receiver=self.tx_conf["to"],
nonce=self.get_nonce(genesis_addr),
gas=gas,
data=tx_data)
client.send_tx(tx, True)
assert_equal(node.cfx_getBankBalance(encode_hex(genesis_addr)),
hex(2 * 10**18 // 16))
# setup contract
transaction = self.call_contract_function(
contract=commission_privilege_contract,
name="constructor",
args=[],
sender_key=self.genesis_priv_key)
contract_addr = self.wait_for_tx([transaction],
True)[0]['contractCreated']
self.log.info("contract_addr={}".format(contract_addr))
assert_equal(node.cfx_getBalance(contract_addr), hex(0))
# setup balance
transaction = self.call_contract_function(
contract=commission_privilege_contract,
name="set",
args=[],
sender_key=genesis_key,
contract_addr=contract_addr,
value=10**18,
wait=True,
check_status=True)
assert_equal(node.cfx_getBalance(contract_addr), hex(10**18))
# call contract with privilege
geneis_balance = node.cfx_getBalance(encode_hex(genesis_addr))
transaction = self.call_contract_function(
contract=commission_privilege_contract,
name="foo",
args=[],
sender_key=genesis_key,
contract_addr=contract_addr,
wait=True,
check_status=True)
assert_equal(node.cfx_getBalance(contract_addr), hex(10**18 - gas))
assert_equal(node.cfx_getBalance(encode_hex(genesis_addr)),
geneis_balance)
# call contract without privilege and remove privilege of genesis
transaction = self.call_contract_function(
contract=commission_privilege_contract,
name="remove",
args=[],
sender_key=priv_key,
contract_addr=contract_addr,
wait=True,
check_status=True)
assert_equal(node.cfx_getBalance(contract_addr), hex(10**18 - gas))
assert_equal(node.cfx_getBalance(addr), hex(5 * 10**18 - gas))
# call contract after removing privilege
geneis_balance = int(node.cfx_getBalance(encode_hex(genesis_addr)), 16)
transaction = self.call_contract_function(
contract=commission_privilege_contract,
name="foo",
args=[],
sender_key=genesis_key,
contract_addr=contract_addr,
wait=True,
check_status=True)
assert_equal(node.cfx_getBalance(contract_addr), hex(10**18 - gas))
self.log.info("Pass")
import os, sys
sys.path.insert(1, os.path.join(sys.path[0], '..'))
import eth_utils
from conflux.config import default_config
from conflux.filter import Filter
from conflux.rpc import RpcClient
from conflux.utils import sha3 as keccak, priv_to_addr
from test_framework.blocktools import create_transaction, encode_hex_0x
from test_framework.test_framework import ConfluxTestFramework
from test_framework.util import assert_equal, assert_is_hex_string, assert_is_hash_string
from test_framework.util import *
CONTRACT_PATH = "../contracts/EventsTestContract_bytecode.dat"
CONSTRUCTED_TOPIC = encode_hex_0x(keccak(b"Constructed(address)"))
FOO_TOPIC = encode_hex_0x(keccak(b"Foo(address,uint32)"))
NUM_CALLS = 20
FULLNODE0 = 0
FULLNODE1 = 1
LIGHTNODE = 2
class LogFilteringTest(ConfluxTestFramework):
def set_test_params(self):
self.num_nodes = 3
def setup_network(self):
self.add_nodes(self.num_nodes)
self.start_node(FULLNODE0, ["--archive"])
from eth_utils import decode_hex
from conflux.config import default_config
from conflux.filter import Filter
from conflux.pubsub import PubSubClient
from conflux.rpc import RpcClient
from conflux.utils import sha3 as keccak, priv_to_addr, bytes_to_int
from test_framework.blocktools import encode_hex_0x
from test_framework.test_framework import ConfluxTestFramework
from test_framework.util import assert_equal, assert_ne, assert_is_hex_string, connect_nodes, sync_blocks
FULLNODE0 = 0
FULLNODE1 = 1
CONTRACT_PATH = "../contracts/EventsTestContract_bytecode.dat"
FOO_TOPIC = encode_hex_0x(keccak(b"foo()"))
NUM_CALLS = 20
class PubSubTest(ConfluxTestFramework):
def set_test_params(self):
self.num_nodes = 2
self.conf_parameters["log_level"] = '"trace"'
self.conf_parameters["pos_pivot_decision_defer_epoch_count"] = '200'
def setup_network(self):
self.add_nodes(self.num_nodes)
self.start_node(FULLNODE0, ["--archive"])
self.start_node(FULLNODE1, ["--archive"])
def run_test(self):
priv_key = default_config["GENESIS_PRI_KEY"]
sender = eth_utils.encode_hex(priv_to_addr(priv_key))
# check storage root of non-existent contract
root = self.rpc[FULLNODE0].get_storage_root(
"0x0f572e5295c57f15886f9b263e2f6d2d6c7b5ec6")
assert_equal(root, None)
# deploy storage test contract
bytecode_file = os.path.join(
os.path.dirname(os.path.realpath(__file__)), CONTRACT_PATH)
assert (os.path.isfile(bytecode_file))
bytecode = open(bytecode_file).read()
_, contractAddr = self.deploy_contract(sender, priv_key, bytecode)
# get storage root; expect: (D0, I0, S0) = (?, NULL, NULL)
root0 = self.rpc[FULLNODE0].get_storage_root(contractAddr)
assert (root0 != None)
assert (root0["delta"] != NULL_NODE)
assert (root0["intermediate"] == NULL_NODE)
assert (root0["snapshot"] == NULL_NODE)
# update storage; expect: (D1, I1, S1) == (?, I0, S0)
# NOTE: call_contract will generate some blocks but it should be < SNAPSHOT_EPOCH_COUNT
self.call_contract(sender, priv_key, contractAddr,
encode_hex_0x(keccak(b"increment()")))
root1 = self.rpc[FULLNODE0].get_storage_root(contractAddr)
assert (root1["delta"] != root0["delta"])
assert (root1["intermediate"] == root0["intermediate"])
assert (root1["snapshot"] == root0["snapshot"])
# go to next era
self.rpc[FULLNODE0].generate_blocks(SNAPSHOT_EPOCH_COUNT)
# get storage root; expect: (D2, I2, S2) == (NULL, D1, ?)
# (the previous delta trie became the current intermediate trie)
# (note that storage root in the snapshot will not match due to differences in padding)
root2 = self.rpc[FULLNODE0].get_storage_root(contractAddr)
assert (root2["delta"] == NULL_NODE)
assert (root2["intermediate"] == root1["delta"])
# update storage; expect: (D3, I3, S3) == (?, D2, S2)
# NOTE: call_contract will generate some blocks but it should be < SNAPSHOT_EPOCH_COUNT
self.call_contract(sender, priv_key, contractAddr,
encode_hex_0x(keccak(b"increment()")))
root3 = self.rpc[FULLNODE0].get_storage_root(contractAddr)
assert (root3["delta"] != root2["delta"])
assert (root3["intermediate"] == root2["intermediate"])
assert (root3["snapshot"] == root2["snapshot"])
# go to next era
self.rpc[FULLNODE0].generate_blocks(SNAPSHOT_EPOCH_COUNT)
# get storage root; expect: (D4, I4, S4) == (NULL, D3, ?)
# (the previous delta trie became the current intermediate trie)
# (note that storage root in the snapshot will not match due to differences in padding)
root4 = self.rpc[FULLNODE0].get_storage_root(contractAddr)
assert (root4["delta"] == NULL_NODE)
assert (root4["intermediate"] == root3["delta"])
# check if other node's storage root matches
sync_blocks(self.nodes[:])
root = self.rpc[FULLNODE1].get_storage_root(contractAddr)
assert (root == root4)
self.log.info("Pass")
def run_test(self):
# initialize EVM account
self.evmAccount = self.w3.eth.account.privateKeyToAccount(
'0x0123456789abcdef0123456789abcdef0123456789abcdef0123456789abcdef'
)
print(f'Using EVM account {self.evmAccount.address}')
self.cross_space_transfer(self.evmAccount.address, 1 * 10**18)
assert_equal(self.nodes[0].eth_getBalance(self.evmAccount.address),
hex(1 * 10**18))
# deploy Conflux space contract
confluxContractAddr = self.deploy_conflux_space(CONFLUX_CONTRACT_PATH)
print(f'Conflux contract: {confluxContractAddr}')
# deploy EVM space contract
evmContractAddr = self.deploy_evm_space(EVM_CONTRACT_PATH)
print(f'EVM contract: {evmContractAddr}')
# #1: call emitConflux(1)
# this will emit 1 event in the Conflux space
data_hex = encode_hex_0x(
keccak(b"emitConflux(uint256)"))[:10] + encode_u256(1)
receipt = self.call_conflux_space(confluxContractAddr, data_hex)
assert_equal(len(receipt["logs"]), 1)
assert_equal(receipt["logs"][0]["data"],
number_to_topic(1)) # TestEvent(1)
# #2: call emitBoth(2)
# this will emit 2 events in the Conflux space (our contract + internal contract) and 1 event in the EVM space
data_hex = encode_hex_0x(
keccak(b"emitBoth(uint256,bytes20)"))[:10] + encode_u256(
2) + encode_bytes20(evmContractAddr.replace('0x', ''))
receipt = self.call_conflux_space(confluxContractAddr, data_hex)
assert_equal(len(receipt["logs"]), 2)
assert_equal(receipt["logs"][0]["data"],
number_to_topic(2)) # TestEvent(2)
# NOTE: EVM-space events are not returned here
# #3: call emitEVM(3)
# this will emit 1 event in the EVM space
data_hex = encode_hex_0x(
keccak(b"emitEVM(uint256)"))[:10] + encode_u256(3)
receipt = self.call_evm_space(evmContractAddr, data_hex)
assert_equal(len(receipt["logs"]), 1)
assert_equal(receipt["logs"][0]["data"],
number_to_topic(3)) # TestEvent(3)
# NOTE: EVM-space events are not returned here
# check Conflux events
# we expect two events from #1 and #2
filter = Filter(topics=[TEST_EVENT_TOPIC],
from_epoch="earliest",
to_epoch="latest_state")
logs = self.rpc.get_logs(filter)
assert_equal(len(logs), 2)
assert_equal(logs[0]["data"], number_to_topic(1)) # TestEvent(1)
assert_equal(logs[1]["data"], number_to_topic(2)) # TestEvent(2)
# check EVM events
# we expect two events from #2 and #3
filter = {
"topics": [TEST_EVENT_TOPIC],
"fromBlock": "earliest",
"toBlock": "latest"
}
logs = self.nodes[0].eth_getLogs(filter)
assert_equal(len(logs), 2)
assert_equal(logs[0]["data"], number_to_topic(2)) # TestEvent(2)
assert_equal(logs[0]["address"], evmContractAddr.lower())
assert_equal(logs[0]["removed"], False)
assert_equal(logs[1]["data"], number_to_topic(3)) # TestEvent(3)
assert_equal(logs[1]["address"], evmContractAddr.lower())
assert_equal(logs[1]["removed"], False)
# TODO(thegaram): add more detailed tests once we have more control over block production
# - events in pivot and non-pivot blocks
# - log.blockHash and log.blockNumber should correspond to pivot block
# - logIndex, transactionIndex, transactionLogIndex
self.log.info("Pass")
def run_test(self):
file_dir = os.path.dirname(os.path.realpath(__file__))
test_contract = get_contract_instance(
abi_file=os.path.join(file_dir, "contracts/issue988_abi.json"),
bytecode_file=os.path.join(file_dir,
"contracts/issue988_bytecode.dat"),
)
start_p2p_connection(self.nodes)
genesis_key = self.genesis_priv_key
genesis_addr = self.genesis_addr
self.log.info("genesis_addr={}".format(encode_hex_0x(genesis_addr)))
nonce = 0
gas_price = 1
gas = 50000000
block_gen_thread = BlockGenThread(self.nodes, self.log)
block_gen_thread.start()
self.tx_conf = {
"from": Web3.toChecksumAddress(encode_hex_0x(genesis_addr)),
"nonce": int_to_hex(nonce),
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
# setup balance for node 0
node = self.nodes[0]
client = RpcClient(node)
(addr, priv_key) = client.rand_account()
self.log.info("addr=%s priv_key=%s", addr, priv_key)
tx = client.new_tx(value=20 * 10**18,
receiver=addr,
nonce=self.get_nonce(genesis_addr))
client.send_tx(tx, True)
assert_equal(node.cfx_getBalance(addr), hex(20000000000000000000))
# deploy test contract
c0 = client.get_collateral_for_storage(addr)
tx = self.call_contract_function(contract=test_contract,
name="constructor",
args=[],
sender_key=priv_key,
storage_limit=10604)
contract_addr = self.wait_for_tx([tx], True)[0]['contractCreated']
c1 = client.get_collateral_for_storage(addr)
assert_equal(c1 - c0, 10604 * 10**18 // 1024)
self.log.info("contract_addr={}".format(contract_addr))
assert_equal(node.cfx_getBalance(contract_addr), hex(0))
raw_result = self.call_contract_function_rpc(
contract=test_contract,
name="ktrriiwhlx",
args=[],
contract_addr=contract_addr)
result = signed_bytes_to_int256(decode_hex(raw_result))
assert_equal(result, -12076)
raw_result = self.call_contract_function_rpc(
contract=test_contract,
name="qiwmzrxuhd",
args=[],
contract_addr=contract_addr)
result = signed_bytes_to_int256(decode_hex(raw_result))
assert_equal(result, -2)
raw_result = self.call_contract_function_rpc(
contract=test_contract,
name="wxqpwecckl",
args=[],
contract_addr=contract_addr)
result = signed_bytes_to_int256(decode_hex(raw_result))
assert_equal(result, -1)
self.log.info("Pass")
def run_test(self):
file_dir = os.path.dirname(os.path.realpath(__file__))
erc20_contract = get_contract_instance(
abi_file=os.path.join(file_dir, "contracts/erc20_abi.json"),
bytecode_file=os.path.join(file_dir,
"contracts/erc20_bytecode.dat"),
)
gas_price = 1
gas = CONTRACT_DEFAULT_GAS
start_p2p_connection(self.nodes)
self.log.info("Initializing contract")
genesis_key = default_config["GENESIS_PRI_KEY"]
genesis_addr = encode_hex_0x(priv_to_addr(genesis_key))
nonce = 0
block_gen_thread = BlockGenThread(self.nodes, self.log)
block_gen_thread.start()
self.tx_conf = {
"from": Web3.toChecksumAddress(genesis_addr),
"nonce": int_to_hex(nonce),
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
raw_create = erc20_contract.constructor().buildTransaction(
self.tx_conf)
tx_data = decode_hex(raw_create["data"])
tx_create = create_transaction(pri_key=genesis_key,
receiver=b'',
nonce=nonce,
gas_price=gas_price,
data=tx_data,
gas=gas,
value=0,
storage_limit=1920)
self.client = RpcClient(self.nodes[0])
c0 = self.client.get_collateral_for_storage(genesis_addr)
self.client.send_tx(tx_create, True)
receipt = self.client.get_transaction_receipt(tx_create.hash_hex())
c1 = self.client.get_collateral_for_storage(genesis_addr)
assert_equal(c1 - c0, 1920 * 10**18 / 1024)
contract_addr = receipt['contractCreated']
self.log.info("Contract " + str(contract_addr) +
" created, start transferring tokens")
tx_n = 10
self.tx_conf["to"] = contract_addr
nonce += 1
balance_map = {genesis_key: 1000000 * 10**18}
sender_key = genesis_key
all_txs = []
for i in range(tx_n):
value = int((balance_map[sender_key] -
((tx_n - i) * 21000 * gas_price)) * random.random())
receiver_sk, _ = ec_random_keys()
balance_map[receiver_sk] = value
tx_data = decode_hex(
erc20_contract.functions.transfer(
Web3.toChecksumAddress(
encode_hex(priv_to_addr(receiver_sk))),
value).buildTransaction(self.tx_conf)["data"])
tx = create_transaction(pri_key=sender_key,
receiver=decode_hex(self.tx_conf["to"]),
value=0,
nonce=nonce,
gas=gas,
gas_price=gas_price,
data=tx_data,
storage_limit=64)
r = random.randint(0, self.num_nodes - 1)
self.nodes[r].p2p.send_protocol_msg(
Transactions(transactions=[tx]))
nonce += 1
balance_map[sender_key] -= value
all_txs.append(tx)
self.log.info("Wait for transactions to be executed")
self.wait_for_tx(all_txs)
self.log.info("Check final token balance")
for sk in balance_map:
addr = priv_to_addr(sk)
assert_equal(self.get_balance(erc20_contract, addr),
balance_map[sk])
c2 = self.client.get_collateral_for_storage(genesis_addr)
assert_equal(c2 - c1, 64 * tx_n * 10**18 / 1024)
block_gen_thread.stop()
block_gen_thread.join()
sync_blocks(self.nodes)
self.log.info("Pass")
import eth_utils
from conflux.filter import Filter
from conflux.rpc import RpcClient
from conflux.utils import sha3 as keccak, priv_to_addr
from test_framework.blocktools import encode_hex_0x, wait_for_initial_nonce_for_address
from test_framework.test_framework import ConfluxTestFramework
from test_framework.util import *
from test_framework.mininode import *
from web3 import Web3
CONFLUX_CONTRACT_PATH = "../contracts/CrossSpaceEventTest/CrossSpaceEventTestConfluxSide.bytecode"
EVM_CONTRACT_PATH = "../contracts/CrossSpaceEventTest/CrossSpaceEventTestEVMSide.bytecode"
TEST_EVENT_TOPIC = encode_hex_0x(keccak(b"TestEvent(uint256)"))
def encode_u256(number):
return ("%x" % number).zfill(64)
def encode_bytes20(hex):
return hex.ljust(64, '0')
def number_to_topic(number):
return "0x" + encode_u256(number)
class CrossSpaceLogFilteringTest(ConfluxTestFramework):
def generate_blocks(self):
priv_key = default_config["GENESIS_PRI_KEY"]
sender = encode_hex(priv_to_addr(priv_key))
# deploy contract
bytecode_file = os.path.join(
os.path.dirname(os.path.realpath(__file__)), CONTRACT_PATH)
assert (os.path.isfile(bytecode_file))
bytecode = open(bytecode_file).read()
_, contract_addr = self.deploy_contract(sender, priv_key, bytecode)
self.log.info("Contract deployed")
parent_hash = self.rpc[FULLNODE0].block_by_epoch(
"latest_mined")['hash']
nonce = self.rpc[FULLNODE0].get_nonce(sender)
hashes = []
num_events = 0
num_blamed = 0
for i in range(0, NORMAL_CHAIN_LENGTH):
if i % (2 * ERA_EPOCH_COUNT) == 0:
# Leave some time for PoS to progress, so we can avoid cross-checkpoint reference.
time.sleep(1)
rnd = random.random()
# ~20% of all block have events
if rnd < 0.2:
tx = self.rpc[FULLNODE0].new_contract_tx(
receiver=contract_addr,
data_hex=encode_hex_0x(keccak(b"foo()")),
sender=sender,
priv_key=priv_key,
storage_limit=64,
nonce=nonce)
parent_hash = self.rpc[FULLNODE0].generate_custom_block(
parent_hash=parent_hash, txs=[tx], referee=[])
nonce += 1
hashes.append(tx.hash_hex())
num_events += 1
# ~10% of all blocks are incorrect and blamed
elif rnd < 0.3:
blame_info = {}
blame_info['blame'] = "0x1"
blame_info[
'deferredStateRoot'] = "0x1111111111111111111111111111111111111111111111111111111111111111"
parent_hash = self.nodes[
FULLNODE0].test_generateblockwithblameinfo(
1, 0, blame_info)
num_blamed += 1
# the rest are empty
else:
parent_hash = self.rpc[FULLNODE0].generate_block_with_parent(
parent_hash=parent_hash)
# TODO: generate blamed blocks with txs in them (overlap)
# generate a pivot chain section where we might not be able to decide blaming
# in this section, all headers will have blame=1
# odd-numbered blocks are incorrect, even-numbered blocks are correct
for _ in range(0, BLAMED_SECTION_LENGTH):
blame_info = {}
blame_info['blame'] = "0x1"
parent_hash = self.nodes[
FULLNODE0].test_generateblockwithblameinfo(1, 0, blame_info)
num_blamed += BLAMED_SECTION_LENGTH // 2
# mine some more blocks to keep blame check offset
for _ in range(0, BLAMED_SECTION_LENGTH):
parent_hash = self.rpc[FULLNODE0].generate_custom_block(
parent_hash=parent_hash, txs=[], referee=[])
# check if all txs have been executed successfully
for hash in hashes:
receipt = self.rpc[FULLNODE0].get_transaction_receipt(hash)
assert_equal(receipt["outcomeStatus"], "0x0")
length = NORMAL_CHAIN_LENGTH + 2 * BLAMED_SECTION_LENGTH
self.log.info(
f"Generated {length} blocks with {num_events} events and {num_blamed} incorrect blocks"
)
from eth_utils import encode_hex
from test_framework.blocktools import encode_hex_0x
from test_framework.test_framework import ConfluxTestFramework
from test_framework.util import assert_equal, connect_nodes, sync_blocks
FULLNODE0 = 0
FULLNODE1 = 1
LIGHTNODE = 2
ERA_EPOCH_COUNT = 100
NORMAL_CHAIN_LENGTH = 1000
BLAMED_SECTION_LENGTH = 100
BLAME_CHECK_OFFSET = 30
CONTRACT_PATH = "../contracts/EventsTestContract_bytecode.dat"
FOO_TOPIC = encode_hex_0x(keccak(b"Foo(address,uint32)"))
class LightSyncTest(ConfluxTestFramework):
def set_test_params(self):
self.num_nodes = 3
# set era and snapshot length
self.conf_parameters["era_epoch_count"] = str(ERA_EPOCH_COUNT)
self.conf_parameters["dev_snapshot_epoch_count"] = str(
ERA_EPOCH_COUNT // 2)
# set other params so that nodes won't crash
self.conf_parameters["adaptive_weight_beta"] = "1"
self.conf_parameters["anticone_penalty_ratio"] = "10"
self.conf_parameters["generate_tx_period_us"] = "100000"
def run_test(self):
priv_key = default_config["GENESIS_PRI_KEY"]
sender = eth_utils.encode_hex(priv_to_addr(priv_key))
# deploy storage test contract
bytecode_file = os.path.join(
os.path.dirname(os.path.realpath(__file__)), CONTRACT_PATH)
assert (os.path.isfile(bytecode_file))
bytecode = open(bytecode_file).read()
tx = self.rpc.new_contract_tx(receiver="",
data_hex=bytecode,
sender=sender,
priv_key=priv_key,
storage_limit=20000)
assert_equal(self.rpc.send_tx(tx, True), tx.hash_hex())
receipt = self.rpc.get_transaction_receipt(tx.hash_hex())
contractAddr = receipt["contractCreated"]
assert_is_hex_string(contractAddr)
# --- --- --- ---
# .- | A | <--- | C | <--- | D | <--- | E | <--- ...
# --- | --- --- --- ---
# ... <--- | P | <-* .
# --- | --- .
# .- | B | <..................
# ---
# 0 --- A --- C --- B --- D ---
# block number: x | x+1 | x+2 | x+3 | x+4 |
# epoch number: y | y+1 | y+2 | y + 3 |
start_nonce = self.rpc.get_nonce(self.rpc.GENESIS_ADDR)
epoch_number_p = int(
self.rpc.block_by_epoch("latest_mined")['epochNumber'], 0)
block_number_p = int(
self.rpc.block_by_epoch("latest_mined")['epochNumber'], 0)
assert_equal(epoch_number_p, block_number_p)
block_p = self.rpc.block_by_epoch("latest_mined")['hash']
txs = [
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getBlockNumber()")),
nonce=start_nonce + 0,
sender=sender,
priv_key=priv_key),
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getEpochNumber()")),
nonce=start_nonce + 1,
sender=sender,
priv_key=priv_key),
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getBlockNumber()")),
nonce=start_nonce + 2,
sender=sender,
priv_key=priv_key),
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getEpochNumber()")),
nonce=start_nonce + 3,
sender=sender,
priv_key=priv_key),
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getBlockNumber()")),
nonce=start_nonce + 4,
sender=sender,
priv_key=priv_key),
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getEpochNumber()")),
nonce=start_nonce + 5,
sender=sender,
priv_key=priv_key),
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getBlockNumber()")),
nonce=start_nonce + 6,
sender=sender,
priv_key=priv_key),
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(
keccak(b"getEpochNumber()")),
nonce=start_nonce + 7,
sender=sender,
priv_key=priv_key),
]
block_a = self.rpc.generate_custom_block(parent_hash=block_p,
referee=[],
txs=txs[0:2])
block_c = self.rpc.generate_custom_block(parent_hash=block_a,
referee=[],
txs=txs[2:4])
block_b = self.rpc.generate_custom_block(parent_hash=block_p,
referee=[],
txs=txs[4:6])
block_d = self.rpc.generate_custom_block(parent_hash=block_c,
referee=[block_b],
txs=txs[6:8])
# make sure transactions have been executed
parent_hash = block_d
for _ in range(5):
block = self.rpc.generate_custom_block(parent_hash=parent_hash,
referee=[],
txs=[])
parent_hash = block
# transactions in block A
# note: topic-1 of each log is the emitted block/epoch number
block_number_a = int(
self.rpc.get_transaction_receipt(
txs[0].hash_hex())['logs'][0]['topics'][1], 16)
epoch_number_a = int(
self.rpc.get_transaction_receipt(
txs[1].hash_hex())['logs'][0]['topics'][1], 16)
assert_equal(block_number_a, block_number_p + 1)
assert_equal(epoch_number_a, epoch_number_p + 1)
# transactions in block B
block_number_b = int(
self.rpc.get_transaction_receipt(
txs[4].hash_hex())['logs'][0]['topics'][1], 16)
epoch_number_b = int(
self.rpc.get_transaction_receipt(
txs[5].hash_hex())['logs'][0]['topics'][1], 16)
assert_equal(block_number_b, block_number_p + 3)
assert_equal(epoch_number_b, epoch_number_p + 3)
# transactions in block C
block_number_c = int(
self.rpc.get_transaction_receipt(
txs[2].hash_hex())['logs'][0]['topics'][1], 16)
epoch_number_c = int(
self.rpc.get_transaction_receipt(
txs[3].hash_hex())['logs'][0]['topics'][1], 16)
assert_equal(block_number_c, block_number_p + 2)
assert_equal(epoch_number_c, epoch_number_p + 2)
# transactions in block d
block_number_d = int(
self.rpc.get_transaction_receipt(
txs[6].hash_hex())['logs'][0]['topics'][1], 16)
epoch_number_d = int(
self.rpc.get_transaction_receipt(
txs[7].hash_hex())['logs'][0]['topics'][1], 16)
assert_equal(block_number_d, block_number_p + 4)
assert_equal(epoch_number_d, epoch_number_p + 3)
self.log.info("Pass")
def run_test(self):
solc = Solc()
file_dir = os.path.dirname(os.path.realpath(__file__))
staking_contract = solc.get_contract_instance(
abi_file=os.path.join(
file_dir, "contracts/storage_interest_staking_abi.json"),
bytecode_file=os.path.join(
file_dir, "contracts/storage_interest_staking_bytecode.dat"),
)
staking_contract_addr = Web3.toChecksumAddress(
"443c409373ffd5c0bec1dddb7bec830856757b65")
self.problem = "0x2bc79b7514884ab00da924607d71542cc4fed3beb8518e747726ae30ab6c7944"
self.solution = "0xc4d2751c52311d0d7efe44e5c4195e058ad5ef4bb89b3e1761b24dc277b132c2"
self.priv_key = default_config["GENESIS_PRI_KEY"]
self.sender = encode_hex_0x(privtoaddr(self.priv_key))
self.sender_checksum = Web3.toChecksumAddress(self.sender)
self.pub = []
self.pri = []
self.rpc = RpcClient(self.nodes[0])
gas = 50000000
gas_price = 10
# lock token for genesis account
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.tx_conf['to'] = staking_contract_addr
tx_data = decode_hex(
staking_contract.functions.deposit(
1000000 * 10**18).buildTransaction(self.tx_conf)["data"])
tx = self.rpc.new_tx(value=0,
receiver=staking_contract_addr,
data=tx_data,
gas=gas,
gas_price=gas_price)
self.rpc.send_tx(tx, True)
for i in range(10):
priv_key = random.randint(0, 2**256).to_bytes(32, "big")
pub_key = encode_hex_0x(privtoaddr(priv_key))
self.pub.append(pub_key)
self.pri.append(priv_key)
transaction = self.rpc.new_tx(sender=self.sender,
receiver=pub_key,
value=1000000 * 10**18,
priv_key=self.priv_key)
self.rpc.send_tx(transaction, True)
# deposit 10000 tokens
tx_data = decode_hex(
staking_contract.functions.deposit(
10000 * 10**18).buildTransaction(self.tx_conf)["data"])
tx = self.rpc.new_tx(value=0,
sender=pub_key,
receiver=self.tx_conf["to"],
gas=gas,
data=tx_data,
priv_key=priv_key)
self.rpc.send_tx(tx)
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.filter = Filter(from_epoch="earliest", to_epoch="latest_mined")
self.testEventContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testBallotContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testPayContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testHTLCContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testDaiContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testMappingContract()
self.tx_conf = {
"from": self.sender,
"gas": int_to_hex(gas),
"gasPrice": int_to_hex(gas_price),
"chainId": 0
}
self.testDaiJoinContract()
self.log.info("Pass")
def run_test(self):
priv_key = default_config["GENESIS_PRI_KEY"]
sender = eth_utils.encode_hex(priv_to_addr(priv_key))
self.rpc = RpcClient(self.nodes[0])
# apply filter, we expect no logs
filter = Filter()
result = self.rpc.get_logs(filter)
assert_equal(result, [])
# deploy contract
bytecode_file = os.path.join(
os.path.dirname(os.path.realpath(__file__)), CONTRACT_PATH)
assert (os.path.isfile(bytecode_file))
bytecode = open(bytecode_file).read()
_, contractAddr = self.deploy_contract(sender, priv_key, bytecode)
# apply filter, we expect a single log with 2 topics
filter = Filter(from_epoch="earliest", to_epoch="latest_state")
logs0 = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs0)
assert_equal(len(logs0), 1)
assert_equal(len(logs0[0]["topics"]), 2)
assert_equal(logs0[0]["topics"][0], CONSTRUCTED_TOPIC)
assert_equal(logs0[0]["topics"][1], self.address_to_topic(sender))
assert_equal(logs0[0]["data"], self.address_to_topic(sender))
# call method
receipt = self.call_contract(sender,
priv_key,
contractAddr,
encode_hex_0x(keccak(b"foo()")),
storage_limit=64)
# apply filter, we expect two logs with 2 and 3 topics respectively
filter = Filter(from_epoch="earliest", to_epoch="latest_state")
logs1 = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs1)
assert_equal(len(logs1), 2)
assert_equal(logs1[0], logs0[0])
assert_equal(len(logs1[1]["topics"]), 3)
assert_equal(logs1[1]["topics"][0], FOO_TOPIC)
assert_equal(logs1[1]["topics"][1], self.address_to_topic(sender))
assert_equal(logs1[1]["topics"][2], self.number_to_topic(1))
# apply filter for specific block, we expect a single log with 3 topics
filter = Filter(block_hashes=[receipt["blockHash"]])
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), 1)
assert_equal(logs[0], logs1[1])
# call many times
for ii in range(2, NUM_CALLS):
self.call_contract(sender,
priv_key,
contractAddr,
encode_hex_0x(keccak(b"foo()")),
storage_limit=0)
# apply filter, we expect NUM_CALLS log entries with increasing uint32 fields
filter = Filter(from_epoch="earliest", to_epoch="latest_state")
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), NUM_CALLS)
for ii in range(2, NUM_CALLS):
assert_equal(len(logs[ii]["topics"]), 3)
assert_equal(logs[ii]["topics"][0], FOO_TOPIC)
assert (logs[ii]["topics"][1] == self.address_to_topic(sender))
assert_equal(logs[ii]["topics"][2], self.number_to_topic(ii))
# apply filter for specific topics
filter = Filter(topics=[CONSTRUCTED_TOPIC])
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), 1)
filter = Filter(topics=[FOO_TOPIC])
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), NUM_CALLS - 1)
filter = Filter(topics=[None, self.address_to_topic(sender)])
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), NUM_CALLS)
# find logs with `FOO_TOPIC` as 1st topic and `3` or `4` as 3rd topic
filter = Filter(topics=[
FOO_TOPIC, None,
[self.number_to_topic(3),
self.number_to_topic(4)]
])
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), 2)
# apply filter with limit
filter = Filter(limit=hex(NUM_CALLS // 2))
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), NUM_CALLS // 2)
# apply filter for specific contract address
_, contractAddr2 = self.deploy_contract(sender, priv_key, bytecode)
filter = Filter(address=[contractAddr])
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), NUM_CALLS)
filter = Filter(address=[contractAddr2])
logs = self.rpc.get_logs(filter)
self.assert_response_format_correct(logs)
assert_equal(len(logs), 1)
# apply filter to very first epoch, we expect no logs
filter = Filter(from_epoch="earliest", to_epoch="earliest")
result = self.rpc.get_logs(filter)
assert_equal(result, [])
# generate two blocks with `NUM_CALLS` transactions in each;
# transactions will generate 2 logs each
parent_hash = self.rpc.block_by_epoch("latest_mined")['hash']
start_nonce = self.rpc.get_nonce(sender)
txs1 = [
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(keccak(b"bar()")),
sender=sender,
priv_key=priv_key,
storage_limit=64,
nonce=start_nonce + ii)
for ii in range(0, NUM_CALLS)
]
block_hash_1 = self.rpc.generate_custom_block(parent_hash=parent_hash,
referee=[],
txs=txs1)
epoch_1 = self.rpc.block_by_hash(block_hash_1)["epochNumber"]
txs2 = [
self.rpc.new_contract_tx(receiver=contractAddr,
data_hex=encode_hex_0x(keccak(b"bar()")),
sender=sender,
priv_key=priv_key,
storage_limit=64,
nonce=start_nonce + NUM_CALLS + ii)
for ii in range(0, NUM_CALLS)
]
block_hash_2 = self.rpc.generate_custom_block(parent_hash=block_hash_1,
referee=[],
txs=txs2)
epoch_2 = self.rpc.block_by_hash(block_hash_2)["epochNumber"]
txs = txs1
txs.extend(txs2)
# blocks not executed yet, filtering should fail
# filter = Filter(block_hashes=[block_hash_1, block_hash_2], topics=[BAR_TOPIC])
# assert_raises_rpc_error(None, None, self.rpc.get_logs, filter)
# generate some more blocks to ensure our two blocks are executed
self.rpc.generate_blocks(10)
# filtering for these two blocks should return logs in correct order
filter = Filter(block_hashes=[block_hash_1, block_hash_2],
topics=[BAR_TOPIC])
logs = self.rpc.get_logs(filter)
assert_equal(len(logs), 4 * NUM_CALLS)
log_index = 0
transaction_index = 0
transaction_log_index = 0
for ii in range(0, 4 * NUM_CALLS):
assert_equal(logs[ii]["address"], contractAddr)
assert_equal(logs[ii]["blockHash"],
block_hash_1 if ii < 2 * NUM_CALLS else block_hash_2)
assert_equal(logs[ii]["epochNumber"],
epoch_1 if ii < 2 * NUM_CALLS else epoch_2)
assert_equal(logs[ii]["transactionHash"], txs[ii // 2].hash_hex())
assert_equal(len(logs[ii]["topics"]), 3)
assert_equal(logs[ii]["topics"][0], BAR_TOPIC)
assert_equal(logs[ii]["topics"][1], self.address_to_topic(sender))
assert_equal(logs[ii]["topics"][2], self.number_to_topic(ii))
# logIndex:
# 0, 1, 2, 3, 4, 6, 7, 8, ..., 2 * NUM_CALLS, 0, 1, 2, ...
assert_equal(logs[ii]["logIndex"],
hex(log_index % (2 * NUM_CALLS)))
log_index += 1
# transactionIndex:
# 0, 0, 1, 1, 2, 2, 3, 3, ..., NUM_CALLS, 0, 0, 1, 1, ...
assert_equal(logs[ii]["transactionIndex"],
hex((transaction_index // 2) % NUM_CALLS))
transaction_index += 1
# transactionLogIndex:
# 0, 1, 0, 1, 0, 1, 0, 1, ...
assert_equal(logs[ii]["transactionLogIndex"],
hex(transaction_log_index % 2))
transaction_log_index += 1
# block hash order should not affect log order
filter = Filter(block_hashes=[block_hash_2, block_hash_1],
topics=[BAR_TOPIC])
logs2 = self.rpc.get_logs(filter)
assert_equal(logs, logs2)
# given a limit, we should receive the _last_ few logs
filter = Filter(block_hashes=[block_hash_1, block_hash_2],
limit=hex(3 * NUM_CALLS + NUM_CALLS // 2),
topics=[BAR_TOPIC])
logs = self.rpc.get_logs(filter)
assert_equal(len(logs), 3 * NUM_CALLS + NUM_CALLS // 2)
for ii in range(0, 3 * NUM_CALLS + NUM_CALLS // 2):
assert_equal(len(logs[ii]["topics"]), 3)
assert_equal(logs[ii]["topics"][0], BAR_TOPIC)
assert_equal(logs[ii]["topics"][1], self.address_to_topic(sender))
assert_equal(logs[ii]["topics"][2],
self.number_to_topic(NUM_CALLS // 2 + ii))
# get-logs-filter-max-epoch-range should limit the number of epochs queried.
self.stop_node(0)
self.start_node(0, ["--get-logs-filter-max-epoch-range", "16"])
filter = Filter(from_epoch="0x0", to_epoch="0x0f", topics=[BAR_TOPIC])
# should not raise error
self.rpc.get_logs(filter)
filter = Filter(from_epoch="0x0", to_epoch="0x10", topics=[BAR_TOPIC])
assert_raises_rpc_error(None, None, self.rpc.get_logs, filter)
self.log.info("Pass")
#!/usr/bin/env python3
import os
import eth_utils
from conflux.config import default_config
from conflux.filter import Filter
from conflux.rpc import RpcClient
from conflux.utils import sha3 as keccak, privtoaddr
from test_framework.blocktools import create_transaction, encode_hex_0x
from test_framework.test_framework import ConfluxTestFramework
from test_framework.util import assert_equal, assert_is_hex_string, assert_is_hash_string
CONTRACT_PATH = "contracts/EventsTestContract_bytecode.dat"
CONSTRUCTED_TOPIC = encode_hex_0x(keccak(b"Constructed(address)"))
CALLED_TOPIC = encode_hex_0x(keccak(b"Called(address,uint32)"))
NUM_CALLS = 20
class LogFilteringTest(ConfluxTestFramework):
def set_test_params(self):
self.setup_clean_chain = True
self.num_nodes = 1
def setup_network(self):
self.setup_nodes()
def run_test(self):
priv_key = default_config["GENESIS_PRI_KEY"]
sender = eth_utils.encode_hex(privtoaddr(priv_key))
self.rpc = RpcClient(self.nodes[0])
def run_test(self):
file_path = os.path.dirname(os.path.realpath(__file__)).split("/")
file_path.pop(-1)
file_path.extend(["internal_contract", "metadata", "Staking.json"])
file_path = "/".join(file_path)
staking_contract_dict = json.loads(open(os.path.join(file_path), "r").read())
staking_contract = get_contract_instance(contract_dict=staking_contract_dict)
start_p2p_connection(self.nodes)
self.log.info("Initializing contract")
genesis_key = default_config["GENESIS_PRI_KEY"]
genesis_addr = priv_to_addr(genesis_key)
nonce = 0
gas_price = 1
gas = CONTRACT_DEFAULT_GAS
block_gen_thread = BlockGenThread(self.nodes, self.log)
block_gen_thread.start()
self.tx_conf = {"from":Web3.toChecksumAddress(encode_hex_0x(genesis_addr)), "nonce":int_to_hex(nonce), "gas":int_to_hex(gas), "gasPrice":int_to_hex(gas_price), "chainId":0}
total_num_blocks = 2 * 60 * 60 * 24 * 365
accumulate_interest_rate = [2 ** 80 * total_num_blocks]
for _ in range(1000):
accumulate_interest_rate.append(accumulate_interest_rate[-1] * (
40000 + 1000000 * total_num_blocks) // (total_num_blocks * 1000000))
# Setup balance for node 0
node = self.nodes[0]
client = RpcClient(node)
(addr, priv_key) = client.rand_account()
self.log.info("addr=%s priv_key=%s", addr, priv_key)
tx = client.new_tx(value=5 * 10 ** 18, receiver=addr)
client.send_tx(tx)
self.wait_for_tx([tx])
assert_equal(client.get_balance(addr), 5 * 10 ** 18)
assert_equal(client.get_staking_balance(addr), 0)
self.tx_conf["to"] = Web3.toChecksumAddress("843c409373ffd5c0bec1dddb7bec830856757b65")
# deposit 10**18
tx_data = decode_hex(staking_contract.functions.deposit(10 ** 18).buildTransaction(self.tx_conf)["data"])
tx = client.new_tx(value=0, sender=addr, receiver=self.tx_conf["to"], gas=gas, data=tx_data, priv_key=priv_key)
client.send_tx(tx)
self.wait_for_tx([tx])
deposit_time = self.get_block_number(client, tx.hash_hex())
assert_equal(client.get_staking_balance(addr), 10 ** 18)
assert_equal(client.get_balance(addr), 4 * 10 ** 18 - charged_of_huge_gas(gas))
# withdraw 5 * 10**17
balance = client.get_balance(addr)
capital = 5 * 10 ** 17
tx_data = decode_hex(staking_contract.functions.withdraw(capital).buildTransaction(self.tx_conf)["data"])
tx = client.new_tx(value=0, sender=addr, receiver=self.tx_conf["to"], gas=gas, data=tx_data, priv_key=priv_key)
client.send_tx(tx)
self.wait_for_tx([tx])
withdraw_time = self.get_block_number(client, tx.hash_hex())
interest = capital * accumulate_interest_rate[withdraw_time] // accumulate_interest_rate[deposit_time] - capital
assert_equal(client.get_staking_balance(addr), 10 ** 18 - capital)
assert_equal(client.get_balance(addr), balance + capital + interest - charged_of_huge_gas(gas))
# lock 4 * 10 ** 17 until block number 100000
balance = client.get_balance(addr)
tx_data = decode_hex(staking_contract.functions.vote_lock(4 * 10 ** 17, 100000).buildTransaction(self.tx_conf)["data"])
tx = client.new_tx(value=0, sender=addr, receiver=self.tx_conf["to"], gas=gas, data=tx_data, priv_key=priv_key)
client.send_tx(tx)
self.wait_for_tx([tx])
assert_equal(client.get_balance(addr), balance - charged_of_huge_gas(gas))
assert_equal(client.get_staking_balance(addr), 5 * 10 ** 17)
# withdraw 5 * 10**17 and it should fail
balance = client.get_balance(addr)
capital = 5 * 10 ** 17
tx_data = decode_hex(staking_contract.functions.withdraw(capital).buildTransaction(self.tx_conf)["data"])
tx = client.new_tx(value=0, sender=addr, receiver=self.tx_conf["to"], gas=gas, data=tx_data, priv_key=priv_key)
client.send_tx(tx)
self.wait_for_tx([tx])
assert_equal(client.get_balance(addr), balance - gas)
assert_equal(client.get_staking_balance(addr), 5 * 10 ** 17)
# withdraw 10**17 + 1 and it should fail
balance = client.get_balance(addr)
tx_data = decode_hex(staking_contract.functions.withdraw(10 ** 17 + 1).buildTransaction(self.tx_conf)["data"])
tx = client.new_tx(value=0, sender=addr, receiver=self.tx_conf["to"], gas=gas, data=tx_data, priv_key=priv_key)
client.send_tx(tx)
self.wait_for_tx([tx])
assert_equal(client.get_balance(addr), balance - gas)
assert_equal(client.get_staking_balance(addr), 5 * 10 ** 17)
# withdraw 10**17 and it should succeed
balance = client.get_balance(addr)
capital = 10 ** 17
tx_data = decode_hex(staking_contract.functions.withdraw(capital).buildTransaction(self.tx_conf)["data"])
tx = client.new_tx(value=0, sender=addr, receiver=self.tx_conf["to"], gas=gas, data=tx_data, priv_key=priv_key)
client.send_tx(tx)
self.wait_for_tx([tx])
withdraw_time = self.get_block_number(client, tx.hash_hex())
interest = capital * accumulate_interest_rate[withdraw_time] // accumulate_interest_rate[deposit_time] - capital
assert_equal(client.get_balance(addr), balance + capital + interest - charged_of_huge_gas(gas))
assert_equal(client.get_staking_balance(addr), 5 * 10 ** 17 - capital)
block_gen_thread.stop()
block_gen_thread.join()
sync_blocks(self.nodes)
self.log.info("Pass")
