Files
hush3/qa/rpc-tests/cryptoconditions.py
Duke Leto be16f80abc Hush Full Node is now GPLv3
Any projects which want to use Hush code from now on will need to be licensed as
GPLv3 or we will send the lawyers: https://www.softwarefreedom.org/

Notably, Komodo (KMD) is licensed as GPLv2 and is no longer compatible to receive
code changes, without causing legal issues. MIT projects, such as Zcash, also cannot pull
in changes from the Hush Full Node without permission from The Hush Developers,
which may in some circumstances grant an MIT license on a case-by-case basis.
2020-10-21 07:28:10 -04:00

691 lines
25 KiB
Python
Executable File

#!/usr/bin/env python2
# Copyright (c) 2018 SuperNET developers
# Distributed under the GPLv3 software license, see the accompanying
# file COPYING or https://www.gnu.org/licenses/gpl-3.0.en.html
from test_framework.test_framework import BitcoinTestFramework
from test_framework.authproxy import JSONRPCException
from test_framework.util import assert_equal, assert_greater_than, \
initialize_chain_clean, initialize_chain, start_nodes, start_node, connect_nodes_bi, \
stop_nodes, sync_blocks, sync_mempools, wait_bitcoinds, rpc_port, assert_raises
import time
from decimal import Decimal
from random import choice
from string import ascii_uppercase
def assert_success(result):
assert_equal(result['result'], 'success')
def assert_error(result):
assert_equal(result['result'], 'error')
def generate_random_string(length):
random_string = ''.join(choice(ascii_uppercase) for i in range(length))
return random_string
class CryptoConditionsTest (BitcoinTestFramework):
def setup_chain(self):
print("Initializing CC test directory "+self.options.tmpdir)
self.num_nodes = 2
initialize_chain_clean(self.options.tmpdir, self.num_nodes)
def setup_network(self, split = False):
print("Setting up network...")
self.addr = "RWPg8B91kfK5UtUN7z6s6TeV9cHSGtVY8D"
self.pubkey = "02676d00110c2cd14ae24f95969e8598f7ccfaa675498b82654a5b5bd57fc1d8cf"
self.privkey = "UqMgxk7ySPNQ4r9nKAFPjkXy6r5t898yhuNCjSZJLg3RAM4WW1m9"
self.addr1 = "RXEXoa1nRmKhMbuZovpcYwQMsicwzccZBp"
self.pubkey1 = "024026d4ad4ecfc1f705a9b42ca64af6d2ad947509c085534a30b8861d756c6ff0"
self.privkey1 = "UtdydP56pGTFmawHzHr1wDrc4oUwCNW1ttX8Pc3KrvH3MA8P49Wi"
self.nodes = start_nodes(self.num_nodes, self.options.tmpdir,
extra_args=[[
# always give -ac_name as first extra_arg and port as third
'-ac_name=REGTEST',
'-conf='+self.options.tmpdir+'/node0/REGTEST.conf',
'-port=64367',
'-rpcport=64368',
'-regtest',
'-addressindex=1',
'-spentindex=1',
'-ac_supply=5555555',
'-ac_reward=10000000000000',
'-pubkey=' + self.pubkey,
'-ac_cc=2',
'-whitelist=127.0.0.1',
'-debug',
'--daemon',
'-rpcuser=rt',
'-rpcpassword=rt'
],
['-ac_name=REGTEST',
'-conf='+self.options.tmpdir+'/node1/REGTEST.conf',
'-port=64365',
'-rpcport=64366',
'-regtest',
'-addressindex=1',
'-spentindex=1',
'-ac_supply=5555555',
'-ac_reward=10000000000000',
'-pubkey=' + self.pubkey1,
'-ac_cc=2',
'-whitelist=127.0.0.1',
'-debug',
'-addnode=127.0.0.1:64367',
'--daemon',
'-rpcuser=rt',
'-rpcpassword=rt']]
)
self.is_network_split = split
self.rpc = self.nodes[0]
self.rpc1 = self.nodes[1]
self.sync_all()
print("Done setting up network")
def send_and_mine(self, xtn, rpc_connection):
txid = rpc_connection.sendrawtransaction(xtn)
assert txid, 'got txid'
# we need the tx above to be confirmed in the next block
rpc_connection.generate(1)
return txid
def run_faucet_tests(self):
rpc = self.rpc
rpc1 = self.rpc1
# basic sanity tests
result = rpc.getwalletinfo()
assert_greater_than(result['txcount'], 100)
assert_greater_than(result['balance'], 0.0)
balance = result['balance']
faucet = rpc.faucetaddress()
assert_equal(faucet['result'], 'success')
# verify all keys look like valid AC addrs, could be better
for x in ['myCCAddress(Faucet)', 'FaucetCCAddress', 'FaucetCCTokensAddress', 'myaddress', 'FaucetNormalAddress']:
assert_equal(faucet[x][0], 'R')
result = rpc.faucetaddress(self.pubkey)
assert_success(result)
# test that additional CCaddress key is returned
for x in ['myCCAddress(Faucet)', 'FaucetCCAddress', 'FaucetCCTokensAddress', 'myaddress', 'FaucetNormalAddress']:
assert_equal(result[x][0], 'R')
# no funds in the faucet yet
result = rpc.faucetget()
assert_error(result)
result = rpc.faucetinfo()
assert_success(result)
result = rpc.faucetfund("0")
assert_error(result)
result = rpc.faucetfund("-1")
assert_error(result)
# we need at least 1 + txfee to get
result = rpc.faucetfund("2")
assert_success(result)
assert result['hex'], "hex key found"
# broadcast the xtn
result = rpc.sendrawtransaction(result['hex'])
txid = result[0]
assert txid, "found txid"
# we need the tx above to be confirmed in the next block
rpc.generate(1)
self.sync_all()
result = rpc.getwalletinfo()
# minus one block reward
balance2 = result['balance'] - 100000
# make sure our balance is less now
assert_greater_than(balance, balance2)
result = rpc.faucetinfo()
assert_success(result)
assert_greater_than( result['funding'], 0 )
# claiming faucet on second node
faucetgethex = rpc1.faucetget()
assert_success(faucetgethex)
assert faucetgethex['hex'], "hex key found"
balance1 = rpc1.getwalletinfo()['balance']
# try to broadcast the faucetget transaction
result = self.send_and_mine(faucetgethex['hex'], rpc1)
assert txid, "transaction broadcasted"
balance2 = rpc1.getwalletinfo()['balance']
assert_greater_than(balance2, balance1)
self.sync_all()
def run_dice_tests(self):
rpc = self.nodes[0]
rpc1 = self.nodes[1]
self.sync_all()
# have to generate few blocks on second node to be able to place bets
rpc1.generate(10)
result = rpc1.getbalance()
assert_greater_than(result, 100000)
dice = rpc.diceaddress()
assert_equal(dice['result'], 'success')
for x in ['myCCAddress(Dice)', 'DiceCCAddress', 'DiceCCTokensAddress', 'myaddress', 'DiceNormalAddress']:
assert_equal(dice[x][0], 'R')
dice = rpc.diceaddress(self.pubkey)
assert_equal(dice['result'], 'success')
for x in ['myCCAddress(Dice)', 'DiceCCAddress', 'DiceCCTokensAddress', 'myaddress', 'DiceNormalAddress']:
assert_equal(dice[x][0], 'R')
# no dice created yet
result = rpc.dicelist()
assert_equal(result, [])
# creating dice plan with too long name (>8 chars)
result = rpc.dicefund("THISISTOOLONG", "10000", "10", "10000", "10", "5")
assert_error(result)
# creating dice plan with < 100 funding
result = rpc.dicefund("LUCKY","10","1","10000","10","5")
assert_error(result)
# creating dice plan with 0 blocks timeout
result = rpc.dicefund("LUCKY","10","1","10000","10","0")
assert_error(result)
# creating dice plan
dicefundtx = rpc.dicefund("LUCKY","1000","1","800","10","5")
diceid = self.send_and_mine(dicefundtx['hex'], rpc)
# checking if it in plans list now
result = rpc.dicelist()
assert_equal(result[0], diceid)
# set dice name for futher usage
dicename = "LUCKY"
# adding zero funds to plan
result = rpc.diceaddfunds(dicename,diceid,"0")
assert_error(result)
# adding negative funds to plan
result = rpc.diceaddfunds(dicename,diceid,"-1")
assert_error(result)
# adding funds to plan
addfundstx = rpc.diceaddfunds(dicename,diceid,"1100")
result = self.send_and_mine(addfundstx['hex'], rpc)
# checking if funds added to plan
result = rpc.diceinfo(diceid)
assert_equal(result["funding"], "2100.00000000")
# not valid dice info checking
result = rpc.diceinfo("invalid")
assert_error(result)
# placing 0 amount bet
result = rpc1.dicebet(dicename,diceid,"0","2")
assert_error(result)
# placing negative amount bet
result = rpc1.dicebet(dicename,diceid,"-1","2")
assert_error(result)
# placing bet more than maxbet
result = rpc1.dicebet(dicename,diceid,"900","2")
assert_error(result)
# placing bet with amount more than funding
result = rpc1.dicebet(dicename,diceid,"3000","2")
assert_error(result)
# placing bet with potential won more than funding
result = rpc1.dicebet(dicename,diceid,"750","9")
assert_error(result)
# placing 0 odds bet
result = rpc1.dicebet(dicename,diceid,"1","0")
assert_error(result)
# placing negative odds bet
result = rpc1.dicebet(dicename,diceid,"1","-1")
assert_error(result)
# placing bet with odds more than allowed
result = rpc1.dicebet(dicename,diceid,"1","11")
assert_error(result)
# placing bet with not correct dice name
result = rpc1.dicebet("nope",diceid,"100","2")
assert_error(result)
# placing bet with not correct dice id
result = rpc1.dicebet(dicename,self.pubkey,"100","2")
assert_error(result)
# have to make some entropy for the next test
entropytx = 0
fundingsum = 1
while entropytx < 110:
fundingsuminput = str(fundingsum)
fundinghex = rpc.diceaddfunds(dicename,diceid,fundingsuminput)
result = self.send_and_mine(fundinghex['hex'], rpc)
entropytx = entropytx + 1
fundingsum = fundingsum + 1
rpc.generate(2)
self.sync_all()
# valid bet placing
placebet = rpc1.dicebet(dicename,diceid,"100","2")
betid = self.send_and_mine(placebet["hex"], rpc1)
assert result, "bet placed"
# check bet status
result = rpc1.dicestatus(dicename,diceid,betid)
assert_success(result)
# note initial dice funding state at this point.
# TODO: track player balance somehow (hard to do because of mining and fees)
diceinfo = rpc.diceinfo(diceid)
funding = float(diceinfo['funding'])
# # placing same amount bets with amount 1 and odds 1:3, checking if balance changed correct
# losscounter = 0
# wincounter = 0
# betcounter = 0
#
# while (betcounter < 10):
# placebet = rpc1.dicebet(dicename,diceid,"1","2")
# betid = self.send_and_mine(placebet["hex"], rpc1)
# time.sleep(3)
# self.sync_all()
# finish = rpc.dicefinish(dicename,diceid,betid)
# self.send_and_mine(finish["hex"], rpc1)
# self.sync_all()
# time.sleep(3)
# betresult = rpc1.dicestatus(dicename,diceid,betid)
# betcounter = betcounter + 1
# if betresult["status"] == "loss":
# losscounter = losscounter + 1
# elif betresult["status"] == "win":
# wincounter = wincounter + 1
# else:
# pass
#
# # funding balance should increase if player loss, decrease if player won
# fundbalanceguess = funding + losscounter - wincounter * 2
# fundinfoactual = rpc.diceinfo(diceid)
# assert_equal(round(fundbalanceguess),round(float(fundinfoactual['funding'])))
def run_token_tests(self):
rpc = self.nodes[0]
result = rpc.tokenaddress()
assert_success(result)
for x in ['myCCAddress(Tokens)', 'TokensNormalAddress', 'TokensNormalAddress', 'myaddress','TokensCCAddress']:
assert_equal(result[x][0], 'R')
result = rpc.tokenaddress(self.pubkey)
assert_success(result)
for x in ['myCCAddress(Tokens)', 'TokensNormalAddress', 'TokensNormalAddress', 'myaddress','TokensCCAddress']:
assert_equal(result[x][0], 'R')
# there are no tokens created yet
result = rpc.tokenlist()
assert_equal(result, [])
# trying to create token with negaive supply
result = rpc.tokencreate("NUKE", "-1987420", "no bueno supply")
assert_error(result)
# creating token with name more than 32 chars
result = rpc.tokencreate("NUKE123456789012345678901234567890", "1987420", "name too long")
assert_error(result)
# creating valid token
result = rpc.tokencreate("DUKE", "1987.420", "Duke's custom token")
assert_success(result)
tokenid = self.send_and_mine(result['hex'], rpc)
result = rpc.tokenlist()
assert_equal(result[0], tokenid)
# get token balance for token with pubkey
result = rpc.tokenbalance(tokenid, self.pubkey)
assert_success(result)
assert_equal(result['balance'], 198742000000)
assert_equal(result['tokenid'], tokenid)
# get token balance for token without pubkey
result = rpc.tokenbalance(tokenid)
assert_success(result)
assert_equal(result['balance'], 198742000000)
assert_equal(result['tokenid'], tokenid)
# this is not a valid assetid
result = rpc.tokeninfo(self.pubkey)
assert_error(result)
# check tokeninfo for valid token
result = rpc.tokeninfo(tokenid)
assert_success(result)
assert_equal(result['tokenid'], tokenid)
assert_equal(result['owner'], self.pubkey)
assert_equal(result['name'], "DUKE")
assert_equal(result['supply'], 198742000000)
assert_equal(result['description'], "Duke's custom token")
# invalid numtokens ask
result = rpc.tokenask("-1", tokenid, "1")
assert_error(result)
# invalid numtokens ask
result = rpc.tokenask("0", tokenid, "1")
assert_error(result)
# invalid price ask
result = rpc.tokenask("1", tokenid, "-1")
assert_error(result)
# invalid price ask
result = rpc.tokenask("1", tokenid, "0")
assert_error(result)
# invalid tokenid ask
result = rpc.tokenask("100", "deadbeef", "1")
assert_error(result)
# valid ask
tokenask = rpc.tokenask("100", tokenid, "7.77")
tokenaskhex = tokenask['hex']
tokenaskid = self.send_and_mine(tokenask['hex'], rpc)
result = rpc.tokenorders(tokenid)
order = result[0]
assert order, "found order"
# invalid ask fillunits
result = rpc.tokenfillask(tokenid, tokenaskid, "0")
assert_error(result)
# invalid ask fillunits
result = rpc.tokenfillask(tokenid, tokenaskid, "-777")
assert_error(result)
# valid ask fillunits
fillask = rpc.tokenfillask(tokenid, tokenaskid, "777")
result = self.send_and_mine(fillask['hex'], rpc)
txid = result[0]
assert txid, "found txid"
# should be no token orders
result = rpc.tokenorders(tokenid)
assert_equal(result, [])
# checking ask cancellation
testorder = rpc.tokenask("100", tokenid, "7.77")
testorderid = self.send_and_mine(testorder['hex'], rpc)
cancel = rpc.tokencancelask(tokenid, testorderid)
self.send_and_mine(cancel["hex"], rpc)
result = rpc.tokenorders(tokenid)
assert_equal(result, [])
# invalid numtokens bid
result = rpc.tokenbid("-1", tokenid, "1")
assert_error(result)
# invalid numtokens bid
result = rpc.tokenbid("0", tokenid, "1")
assert_error(result)
# invalid price bid
result = rpc.tokenbid("1", tokenid, "-1")
assert_error(result)
# invalid price bid
result = rpc.tokenbid("1", tokenid, "0")
assert_error(result)
# invalid tokenid bid
result = rpc.tokenbid("100", "deadbeef", "1")
assert_error(result)
tokenbid = rpc.tokenbid("100", tokenid, "10")
tokenbidhex = tokenbid['hex']
tokenbidid = self.send_and_mine(tokenbid['hex'], rpc)
result = rpc.tokenorders(tokenid)
order = result[0]
assert order, "found order"
# invalid bid fillunits
result = rpc.tokenfillbid(tokenid, tokenbidid, "0")
assert_error(result)
# invalid bid fillunits
result = rpc.tokenfillbid(tokenid, tokenbidid, "-777")
assert_error(result)
# valid bid fillunits
fillbid = rpc.tokenfillbid(tokenid, tokenbidid, "1000")
result = self.send_and_mine(fillbid['hex'], rpc)
txid = result[0]
assert txid, "found txid"
# should be no token orders
result = rpc.tokenorders(tokenid)
assert_equal(result, [])
# checking bid cancellation
testorder = rpc.tokenbid("100", tokenid, "7.77")
testorderid = self.send_and_mine(testorder['hex'], rpc)
cancel = rpc.tokencancelbid(tokenid, testorderid)
self.send_and_mine(cancel["hex"], rpc)
result = rpc.tokenorders(tokenid)
assert_equal(result, [])
# invalid token transfer amount (have to add status to CC code!)
randompubkey = "021a559101e355c907d9c553671044d619769a6e71d624f68bfec7d0afa6bd6a96"
result = rpc.tokentransfer(tokenid,randompubkey,"0")
assert_error(result)
# invalid token transfer amount (have to add status to CC code!)
result = rpc.tokentransfer(tokenid,randompubkey,"-1")
assert_error(result)
# valid token transfer
sendtokens = rpc.tokentransfer(tokenid,randompubkey,"1")
self.send_and_mine(sendtokens["hex"], rpc)
result = rpc.tokenbalance(tokenid,randompubkey)
assert_equal(result["balance"], 1)
def run_rewards_tests(self):
rpc = self.nodes[0]
result = rpc.rewardsaddress()
for x in ['myCCAddress(Rewards)', 'myaddress', 'RewardsCCAddress', 'RewardsCCTokensAddress', 'RewardsNormalAddress']:
assert_equal(result[x][0], 'R')
result = rpc.rewardsaddress(self.pubkey)
for x in ['myCCAddress(Rewards)', 'myaddress', 'RewardsCCAddress', 'RewardsCCTokensAddress', 'RewardsNormalAddress']:
assert_equal(result[x][0], 'R')
# no rewards yet
result = rpc.rewardslist()
assert_equal(result, [])
# looking up non-existent reward should return error
result = rpc.rewardsinfo("none")
assert_error(result)
# creating rewards plan with name > 8 chars, should return error
result = rpc.rewardscreatefunding("STUFFSTUFF", "7777", "25", "0", "10", "10")
assert_error(result)
# creating rewards plan with 0 funding
result = rpc.rewardscreatefunding("STUFF", "0", "25", "0", "10", "10")
assert_error(result)
# creating rewards plan with 0 maxdays
result = rpc.rewardscreatefunding("STUFF", "7777", "25", "0", "10", "0")
assert_error(result)
# creating rewards plan with > 25% APR
result = rpc.rewardscreatefunding("STUFF", "7777", "30", "0", "10", "10")
assert_error(result)
# creating valid rewards plan
result = rpc.rewardscreatefunding("STUFF", "7777", "25", "0", "10", "10")
assert result['hex'], 'got raw xtn'
fundingtxid = rpc.sendrawtransaction(result['hex'])
assert fundingtxid, 'got txid'
# confirm the above xtn
rpc.generate(1)
result = rpc.rewardsinfo(fundingtxid)
assert_success(result)
assert_equal(result['name'], 'STUFF')
assert_equal(result['APR'], "25.00000000")
assert_equal(result['minseconds'], 0)
assert_equal(result['maxseconds'], 864000)
assert_equal(result['funding'], "7777.00000000")
assert_equal(result['mindeposit'], "10.00000000")
assert_equal(result['fundingtxid'], fundingtxid)
# checking if new plan in rewardslist
result = rpc.rewardslist()
assert_equal(result[0], fundingtxid)
# creating reward plan with already existing name, should return error
result = rpc.rewardscreatefunding("STUFF", "7777", "25", "0", "10", "10")
assert_error(result)
# add funding amount must be positive
result = rpc.rewardsaddfunding("STUFF", fundingtxid, "-1")
assert_error(result)
# add funding amount must be positive
result = rpc.rewardsaddfunding("STUFF", fundingtxid, "0")
assert_error(result)
# adding valid funding
result = rpc.rewardsaddfunding("STUFF", fundingtxid, "555")
addfundingtxid = self.send_and_mine(result['hex'], rpc)
assert addfundingtxid, 'got funding txid'
# checking if funding added to rewardsplan
result = rpc.rewardsinfo(fundingtxid)
assert_equal(result['funding'], "8332.00000000")
# trying to lock funds, locking funds amount must be positive
result = rpc.rewardslock("STUFF", fundingtxid, "-5")
assert_error(result)
# trying to lock funds, locking funds amount must be positive
result = rpc.rewardslock("STUFF", fundingtxid, "0")
assert_error(result)
# trying to lock less than the min amount is an error
result = rpc.rewardslock("STUFF", fundingtxid, "7")
assert_error(result)
# locking funds in rewards plan
result = rpc.rewardslock("STUFF", fundingtxid, "10")
assert_success(result)
locktxid = result['hex']
assert locktxid, "got lock txid"
# locktxid has not been broadcast yet
result = rpc.rewardsunlock("STUFF", fundingtxid, locktxid)
assert_error(result)
# broadcast xtn
txid = rpc.sendrawtransaction(locktxid)
assert txid, 'got txid from sendrawtransaction'
# confirm the xtn above
rpc.generate(1)
# will not unlock since reward amount is less than tx fee
result = rpc.rewardsunlock("STUFF", fundingtxid, locktxid)
assert_error(result)
def run_oracles_tests(self):
rpc = self.nodes[0]
rpc1 = self.nodes[1]
result = rpc1.oraclesaddress()
result = rpc.oraclesaddress()
assert_success(result)
for x in ['OraclesCCAddress', 'OraclesNormalAddress', 'myCCAddress(Oracles)','OraclesCCTokensAddress', 'myaddress']:
assert_equal(result[x][0], 'R')
result = rpc.oraclesaddress(self.pubkey)
assert_success(result)
for x in ['OraclesCCAddress', 'OraclesNormalAddress', 'myCCAddress(Oracles)','OraclesCCTokensAddress', 'myaddress']:
assert_equal(result[x][0], 'R')
# there are no oracles created yet
result = rpc.oracleslist()
assert_equal(result, [])
# looking up non-existent oracle should return error.
result = rpc.oraclesinfo("none")
assert_error(result)
# attempt to create oracle with not valid data type should return error
result = rpc.oraclescreate("Test", "Test", "Test")
assert_error(result)
# attempt to create oracle with description > 32 symbols should return error
too_long_name = generate_random_string(33)
result = rpc.oraclescreate(too_long_name, "Test", "s")
# attempt to create oracle with description > 4096 symbols should return error
too_long_description = generate_random_string(4100)
result = rpc.oraclescreate("Test", too_long_description, "s")
assert_error(result)
# # valid creating oracles of different types
# # using such naming to re-use it for data publishing / reading (e.g. oracle_s for s type)
# valid_formats = ["s", "S", "d", "D", "c", "C", "t", "T", "i", "I", "l", "L", "h", "Ihh"]
# for f in valid_formats:
# result = rpc.oraclescreate("Test", "Test", f)
# assert_success(result)
# globals()["oracle_{}".format(f)] = self.send_and_mine(result['hex'], rpc)
def run_test (self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
rpc.generate(101)
self.sync_all()
rpc.getinfo()
rpc1.getinfo()
# this corresponds to -pubkey above
print("Importing privkeys")
rpc.importprivkey(self.privkey)
rpc1.importprivkey(self.privkey1)
self.run_faucet_tests()
self.sync_all()
self.run_rewards_tests()
self.sync_all()
self.run_dice_tests()
self.sync_all()
self.run_token_tests()
self.sync_all()
self.run_oracles_tests()
if __name__ == '__main__':
CryptoConditionsTest ().main()