Remove libcryptoconditions dependency #381

This commit is contained in:
Duke
2024-02-11 00:04:55 -05:00
parent 0cbce3b0c8
commit 9e26dac42a
276 changed files with 6 additions and 54415 deletions

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@@ -1,691 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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',
'-allowlist=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',
'-allowlist=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()

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@@ -1,261 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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
import time
from test_framework.test_framework import CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsChannelsTest(CryptoconditionsTestFramework):
def run_channels_tests(self):
"""!!! for testing needed test daemon which built with custom flag
export CONFIGURE_FLAGS='CPPFLAGS=-DTESTMODE'
since in usual mode 101 confirmations are needed for payment/refund
"""
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# checking channelsaddress call
result = rpc.channelsaddress(self.pubkey)
assert_success(result)
# test that additional CCaddress key is returned
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
# getting empty channels list
result = rpc.channelslist()
assert_equal(len(result), 2)
assert_equal(result["result"], "success")
assert_equal(result["name"], "Channels List")
# 10 payments, 100000 sat denomination channel opening with second node pubkey
new_channel_hex = rpc.channelsopen(self.pubkey1, "10", "100000")
assert_success(new_channel_hex)
channel_txid = self.send_and_mine(new_channel_hex["hex"], rpc)
assert channel_txid, "got channel txid"
# checking if our new channel in common channels list
result = rpc.channelslist()
assert_equal(len(result), 3)
# checking info about channel directly
result = rpc.channelsinfo(channel_txid)
assert_success(result)
assert_equal(result["Transactions"][0]["Open"], channel_txid)
# open transaction should be confirmed
rpc.generate(1)
# trying to make wrong denomination channel payment
result = rpc.channelspayment(channel_txid, "199000")
assert_error(result)
# trying to make 0 channel payment
result = rpc.channelspayment(channel_txid, "0")
assert_error(result)
# trying to make negative channel payment
result = rpc.channelspayment(channel_txid, "-1")
assert_error(result)
# valid channel payment
result = rpc.channelspayment(channel_txid, "100000")
assert_success(result)
payment_tx_id = self.send_and_mine(result["hex"], rpc)
assert payment_tx_id, "got txid"
# now in channelinfo payment information should appear
result = rpc.channelsinfo(channel_txid)
assert_equal(result["Transactions"][1]["Payment"], payment_tx_id)
# number of payments should be equal 1 (one denomination used)
result = rpc.channelsinfo(channel_txid)["Transactions"][1]["Number of payments"]
assert_equal(result, 1)
# payments left param should reduce 1 and be equal 9 now ( 10 - 1 = 9 )
result = rpc.channelsinfo(channel_txid)["Transactions"][1]["Payments left"]
assert_equal(result, 9)
# lets try payment with x2 amount to ensure that counters works correct
result = rpc.channelspayment(channel_txid, "200000")
assert_success(result)
payment_tx_id = self.send_and_mine(result["hex"], rpc)
assert payment_tx_id, "got txid"
result = rpc.channelsinfo(channel_txid)
assert_equal(result["Transactions"][2]["Payment"], payment_tx_id)
result = rpc.channelsinfo(channel_txid)["Transactions"][2]["Number of payments"]
assert_equal(result, 2)
result = rpc.channelsinfo(channel_txid)["Transactions"][2]["Payments left"]
assert_equal(result, 7)
# check if payment value really transferred
raw_transaction = rpc.getrawtransaction(payment_tx_id, 1)
result = raw_transaction["vout"][3]["valueSat"]
assert_equal(result, 200000)
result = rpc1.validateaddress(raw_transaction["vout"][3]["scriptPubKey"]["addresses"][0])["ismine"]
assert_equal(result, True)
# have to check that second node have coins to cover txfee at least
rpc.sendtoaddress(rpc1.getnewaddress(), 1)
rpc.sendtoaddress(rpc1.getnewaddress(), 1)
rpc.generate(2)
self.sync_all()
result = rpc1.getbalance()
assert_greater_than(result, 0.1)
# trying to initiate channels payment from node B without any secret
# TODO: have to add RPC validation
payment_hex = rpc1.channelspayment(channel_txid, "100000")
try:
result = rpc1.sendrawtransaction(payment_hex["hex"])
except Exception as e:
pass
# trying to initiate channels payment from node B with secret from previous payment
result = rpc1.channelspayment(channel_txid, "100000", rpc1.channelsinfo(channel_txid)["Transactions"][1]["Secret"])
#result = rpc1.sendrawtransaction(payment_hex["hex"])
assert_error(result)
# executing channel close
result = rpc.channelsclose(channel_txid)
assert_success(result)
channel_close_txid = self.send_and_mine(result["hex"], rpc)
assert channel_close_txid, "got txid"
rpc.generate(2)
self.sync_all()
# now in channelinfo closed flag should appear
result = rpc.channelsinfo(channel_txid)
assert_equal(result["Transactions"][3]["Close"], channel_close_txid)
# executing channel refund
result = rpc.channelsrefund(channel_txid, channel_close_txid)
assert_success(result)
refund_txid = self.send_and_mine(result["hex"], rpc)
assert refund_txid, "got txid"
# checking if it refunded to opener address
raw_transaction = rpc.getrawtransaction(refund_txid, 1)
result = raw_transaction["vout"][2]["valueSat"]
assert_equal(result, 700000)
result = rpc.validateaddress(raw_transaction["vout"][2]["scriptPubKey"]["addresses"][0])["ismine"]
assert_equal(result, True)
# creating and draining channel (10 payment by 100000 satoshies in total to fit full capacity)
new_channel_hex1 = rpc.channelsopen(self.pubkey1, "10", "100000")
assert_success(new_channel_hex1)
channel1_txid = self.send_and_mine(new_channel_hex1["hex"], rpc)
assert channel1_txid, "got channel txid"
# need to have 2+ confirmations in the test mode
rpc.generate(2)
self.sync_all()
for i in range(10):
result = rpc.channelspayment(channel1_txid, "100000")
assert_success(result)
payment_tx_id = self.send_and_mine(result["hex"], rpc)
assert payment_tx_id, "got txid"
# last payment should indicate that 0 payments left
result = rpc.channelsinfo(channel1_txid)["Transactions"][10]["Payments left"]
assert_equal(result, 0)
# no more payments possible
result = rpc.channelspayment(channel1_txid, "100000")
assert_error(result)
# creating new channel to test the case when node B initiate payment when node A revealed secret in offline
# 10 payments, 100000 sat denomination channel opening with second node pubkey
new_channel_hex2 = rpc.channelsopen(self.pubkey1, "10", "100000")
assert_success(new_channel_hex)
channel2_txid = self.send_and_mine(new_channel_hex2["hex"], rpc)
assert channel2_txid, "got channel txid"
rpc.generate(2)
self.sync_all()
# disconnecting first node from network
rpc.setban("127.0.0.0/24","add")
assert_equal(rpc.getinfo()["connections"], 0)
assert_equal(rpc1.getinfo()["connections"], 0)
rpc1.generate(1)
# sending one payment to mempool to reveal the secret but not mine it
payment_hex = rpc.channelspayment(channel2_txid, "100000")
result = rpc.sendrawtransaction(payment_hex["hex"])
assert result, "got payment txid"
secret = rpc.channelsinfo(channel2_txid)["Transactions"][1]["Secret"]
assert secret, "Secret revealed"
# secret shouldn't be available for node B
secret_not_revealed = None
try:
rpc1.channelsinfo(channel2_txid)["Transactions"][1]["Secret"]
except Exception:
secret_not_revealed = True
assert_equal(secret_not_revealed, True)
# trying to initiate payment from second node with revealed secret
assert_equal(rpc1.getinfo()["connections"], 0)
dc_payment_hex = rpc1.channelspayment(channel2_txid, "100000", secret)
assert_success(dc_payment_hex)
result = rpc1.sendrawtransaction(dc_payment_hex["hex"])
assert result, "got channelspayment transaction id"
# TODO: it crash first node after block generating on mempools merging
# # restoring connection between nodes
# rpc.setban("127.0.0.0/24","remove")
# #rpc.generate(1)
# #rpc1.generate(1)
# sync_blocks(self.nodes)
# rpc.generate(1)
# sync_blocks(self.nodes)
# sync_mempools(self.nodes)
# assert_equal(rpc.getinfo()["connections"], 1)
# assert_equal(rpc1.getinfo()["connections"], 1)
def run_test(self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
if not self.options.noshutdown:
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_channels_tests()
if __name__ == '__main__':
CryptoconditionsChannelsTest().main()

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@@ -1,204 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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 CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsDiceTest(CryptoconditionsTestFramework):
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)
result = rpc.diceaddress()
assert_equal(result['result'], 'success')
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.diceaddress(self.pubkey)
for x in result.keys():
print(x+": "+str(result[x]))
assert_equal(result['result'], 'success')
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[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_test(self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
if not self.options.noshutdown:
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_dice_tests()
if __name__ == '__main__':
CryptoconditionsDiceTest ().main()

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@@ -1,116 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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 CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsFaucetTest(CryptoconditionsTestFramework):
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']
result = rpc.faucetaddress()
assert_equal(result['result'], 'success')
# verify all keys look like valid AC addrs, could be better
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.faucetaddress(self.pubkey)
assert_success(result)
for x in result.keys():
print(x+": "+str(result[x]))
# test that additional CCaddress key is returned
for x in result.keys():
if x.find('ddress') > 0:
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_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()
if __name__ == '__main__':
CryptoconditionsFaucetTest ().main()

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@@ -1,97 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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 CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsGatewaysTest(CryptoconditionsTestFramework):
def run_gateways_tests(self):
rpc = self.nodes[0]
rpc1 = self.nodes[1]
result = rpc.gatewaysaddress()
assert_success(result)
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
assert_equal("03ea9c062b9652d8eff34879b504eda0717895d27597aaeb60347d65eed96ccb40", result["GatewaysPubkey"])
# getting an empty gateways list
result = rpc.gatewayslist()
assert_equal(result, [])
# Gateways binding preparation
# creating oracle
oracle_hex = rpc.oraclescreate("Test", "Testing", "Ihh")
assert_success(oracle_hex)
oracle_txid = self.send_and_mine(oracle_hex["hex"], rpc)
assert oracle_txid, "got txid"
# registering as an oracle publisher
reg_hex = rpc.oraclesregister(oracle_txid, "10000")
assert_success(reg_hex)
reg_txid = self.send_and_mine(reg_hex["hex"], rpc)
assert reg_txid, "got txid"
# subscribing on oracle
sub_hex = rpc.oraclessubscribe(oracle_txid, self.pubkey, "1")
assert_success(sub_hex)
sub_txid = self.send_and_mine(sub_hex["hex"], rpc)
assert sub_txid, "got txid"
# creating token
token_hex = rpc.tokencreate("Test", "1", "Testing")
assert_success(token_hex)
token_txid = self.send_and_mine(token_hex["hex"], rpc)
assert token_txid, "got txid"
# converting tokens
convertion_hex = rpc.tokenconvert("241",token_txid,"03ea9c062b9652d8eff34879b504eda0717895d27597aaeb60347d65eed96ccb40","100000000")
assert_success(convertion_hex)
convertion_txid = self.send_and_mine(convertion_hex["hex"], rpc)
assert convertion_txid, "got txid"
# binding gateway
bind_hex = rpc.gatewaysbind(token_txid, oracle_txid, "KMD", "100000000", "1", "1", self.pubkey)
assert_success(bind_hex)
bind_txid = self.send_and_mine(bind_hex["hex"], rpc)
assert bind_txid, "got txid"
# checking if created gateway in list
result = rpc.gatewayslist()
assert_equal(result[0], bind_txid)
def run_test(self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
if not self.options.noshutdown:
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_gateways_tests()
if __name__ == '__main__':
CryptoconditionsGatewaysTest().main()

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@@ -1,177 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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
import time
from test_framework.test_framework import CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsHeirTest(CryptoconditionsTestFramework):
def run_heir_tests(self):
rpc = self.nodes[0]
rpc1 = self.nodes[1]
result = rpc.heiraddress('')
assert_success(result)
# verify all keys look like valid AC addrs, could be better
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.heiraddress(self.pubkey)
assert_success(result)
# test that additional CCaddress key is returned
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
# getting empty heir list
result = rpc.heirlist()
assert_equal(result, [])
# valid heirfund case with coins
result = rpc.heirfund("0", "1000", "UNITHEIR", self.pubkey1, "10", "TESTMEMO")
assert_success(result)
heir_fund_txid = self.send_and_mine(result["hex"], rpc)
assert heir_fund_txid, "got heir funding txid"
# heir fund txid should be in heirlist now
result = rpc.heirlist()
assert_equal(result, [heir_fund_txid])
# checking heirinfo
result = rpc.heirinfo(heir_fund_txid)
assert_success(result)
assert_equal(result["fundingtxid"], heir_fund_txid)
assert_equal(result["name"], "UNITHEIR")
assert_equal(result["owner"], self.pubkey)
assert_equal(result["heir"], self.pubkey1)
assert_equal(result["memo"], "TESTMEMO")
assert_equal(result["lifetime"], "1000.00000000")
assert_equal(result["type"], "coins")
assert_equal(result["InactivityTimeSetting"], "10")
assert_equal(result["InactivityTime"], "0")
assert_equal(result["IsHeirSpendingAllowed"], "false")
# waiting for 11 seconds to be sure that needed time passed for heir claiming
time.sleep(11)
rpc.generate(1)
self.sync_all()
result = rpc.heirinfo(heir_fund_txid)
assert_equal(result["lifetime"], "1000.00000000")
assert_equal(result["IsHeirSpendingAllowed"], "true")
# have to check that second node have coins to cover txfee at least
rpc.sendtoaddress(rpc1.getnewaddress(), 1)
rpc.sendtoaddress(rpc1.getnewaddress(), 1)
rpc.generate(2)
self.sync_all()
second_node_balance = rpc1.getbalance()
assert_greater_than(second_node_balance, 0.1)
# let's claim whole heir sum from second node
result = rpc1.heirclaim("0", "1000", heir_fund_txid)
assert_success(result)
heir_claim_txid = self.send_and_mine(result["hex"], rpc1)
assert heir_claim_txid, "got claim txid"
# balance of second node after heirclaim should increase for 1000 coins - txfees
# + get one block reward when broadcasted heir_claim_txid
result = round(rpc1.getbalance()) - round(second_node_balance)
assert_greater_than(result, 100999)
self.sync_all()
# no more funds should be available for claiming
result = rpc.heirinfo(heir_fund_txid)
assert_equal(result["lifetime"], "1000.00000000")
assert_equal(result["available"], "0.00000000")
# creating tokens which we put to heir contract
token_hex = rpc.tokencreate("TEST", "1", "TESTING")
token_txid = self.send_and_mine(token_hex["hex"], rpc)
assert token_txid, "got token txid"
# checking possesion over the tokens and balance
result = rpc.tokenbalance(token_txid, self.pubkey)["balance"]
assert_equal(result, 100000000)
# valid heir case with tokens
token_heir_hex = rpc.heirfund("0", "100000000", "UNITHEIR", self.pubkey1, "10", "TESTMEMO", token_txid)
token_heir_txid = self.send_and_mine(token_heir_hex["hex"], rpc)
assert token_heir_txid, "got txid of heirfund with tokens"
self.sync_all()
# checking heirinfo
result = rpc.heirinfo(token_heir_txid)
assert_success(result)
assert_equal(result["fundingtxid"], token_heir_txid)
assert_equal(result["name"], "UNITHEIR")
assert_equal(result["owner"], self.pubkey)
assert_equal(result["heir"], self.pubkey1)
assert_equal(result["lifetime"], "100000000")
assert_equal(result["type"], "tokens")
assert_equal(result["InactivityTimeSetting"], "10")
assert_equal(result["InactivityTime"], "0")
assert_equal(result["IsHeirSpendingAllowed"], "false")
# waiting for 11 seconds to be sure that needed time passed for heir claiming
time.sleep(11)
rpc.generate(1)
self.sync_all()
result = rpc.heirinfo(token_heir_txid)
assert_equal(result["lifetime"], "100000000")
assert_equal(result["IsHeirSpendingAllowed"], "true")
# let's claim whole heir sum from second node
result = rpc1.heirclaim("0", "100000000", token_heir_txid)
assert_success(result)
heir_tokens_claim_txid = self.send_and_mine(result["hex"], rpc1)
assert heir_tokens_claim_txid, "got claim txid"
# claiming node should have correct token balance now
result = rpc1.tokenbalance(token_txid, self.pubkey1)["balance"]
assert_equal(result, 100000000)
self.sync_all()
# no more funds should be available for claiming
result = rpc.heirinfo(token_heir_txid)
assert_equal(result["lifetime"], "100000000")
assert_equal(result["available"], "0")
def run_test(self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
if not self.options.noshutdown:
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_heir_tests()
if __name__ == '__main__':
CryptoconditionsHeirTest().main()

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@@ -1,265 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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 CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsOraclesTest(CryptoconditionsTestFramework):
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 result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.oraclesaddress(self.pubkey)
assert_success(result)
for x in result.keys():
if x.find('ddress') > 0:
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)
# need uxtos to create oracle? Crashes if without generate
rpc.generate(2)
# 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_"+f, "Test_"+f, f)
assert_success(result)
globals()["oracle_{}".format(f)] = self.send_and_mine(result['hex'], rpc)
# trying to register with negative datafee
result = rpc.oraclesregister(globals()["oracle_{}".format(f)], "-100")
assert_error(result)
# trying to register with zero datafee
result = rpc.oraclesregister(globals()["oracle_{}".format(f)], "0")
assert_error(result)
# trying to register with datafee less than txfee
result = rpc.oraclesregister(globals()["oracle_{}".format(f)], "500")
assert_error(result)
# trying to register valid (unfunded)
result = rpc.oraclesregister(globals()["oracle_{}".format(f)], "10000")
assert_error(result)
# Fund the oracles
result = rpc.oraclesfund(globals()["oracle_{}".format(f)])
assert_success(result)
fund_txid = self.send_and_mine(result["hex"], rpc)
assert fund_txid, "got txid"
# trying to register valid (funded)
result = rpc.oraclesregister(globals()["oracle_{}".format(f)], "10000")
print(f)
assert_success(result)
register_txid = self.send_and_mine(result["hex"], rpc)
assert register_txid, "got txid"
# TODO: for most of the non valid oraclesregister and oraclessubscribe transactions generating and broadcasting now
# so trying only valid oraclessubscribe atm
result = rpc.oraclessubscribe(globals()["oracle_{}".format(f)], self.pubkey, "1")
assert_success(result)
subscribe_txid = self.send_and_mine(result["hex"], rpc)
assert register_txid, "got txid"
rpc.generate(1)
# now lets publish and read valid data for each oracle type
# s type
result = rpc.oraclesdata(globals()["oracle_{}".format("s")], "05416e746f6e")
assert_success(result)
oraclesdata_s = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("s")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("s")], batonaddr, "1")
assert_equal("[u'Anton']", str(result["samples"][0]['data']), "Data match")
# S type
result = rpc.oraclesdata(globals()["oracle_{}".format("S")], "000161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161616161")
assert_success(result)
oraclesdata_S = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("S")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("S")], batonaddr, "1")
assert_equal("[u'aaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaa']", str(result["samples"][0]['data']), "Data match")
# d type
result = rpc.oraclesdata(globals()["oracle_{}".format("d")], "0101")
assert_success(result)
# baton
oraclesdata_d = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("d")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("d")], batonaddr, "1")
assert_equal("[u'01']", str(result["samples"][0]['data']), "Data match")
# D type
result = rpc.oraclesdata(globals()["oracle_{}".format("D")], "010001")
assert_success(result)
# baton
oraclesdata_D = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("D")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("D")], batonaddr, "1")
assert_equal("[u'01']", str(result["samples"][0]['data']), "Data match")
# c type
result = rpc.oraclesdata(globals()["oracle_{}".format("c")], "ff")
assert_success(result)
# baton
oraclesdata_c = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("c")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("c")], batonaddr, "1")
assert_equal("[u'-1']", str(result["samples"][0]['data']), "Data match")
# C type
result = rpc.oraclesdata(globals()["oracle_{}".format("C")], "ff")
assert_success(result)
# baton
oraclesdata_C = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("C")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("C")], batonaddr, "1")
assert_equal("[u'255']", str(result["samples"][0]['data']), "Data match")
# t type
result = rpc.oraclesdata(globals()["oracle_{}".format("t")], "ffff")
assert_success(result)
# baton
oraclesdata_t = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("t")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("t")], batonaddr, "1")
assert_equal("[u'-1']", str(result["samples"][0]['data']), "Data match")
# T type
result = rpc.oraclesdata(globals()["oracle_{}".format("T")], "ffff")
assert_success(result)
# baton
oraclesdata_T = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("T")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("T")], batonaddr, "1")
assert_equal("[u'65535']", str(result["samples"][0]['data']), "Data match")
# i type
result = rpc.oraclesdata(globals()["oracle_{}".format("i")], "ffffffff")
assert_success(result)
# baton
oraclesdata_i = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("i")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("i")], batonaddr, "1")
assert_equal("[u'-1']", str(result["samples"][0]['data']), "Data match")
# I type
result = rpc.oraclesdata(globals()["oracle_{}".format("I")], "ffffffff")
assert_success(result)
# baton
oraclesdata_I = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("I")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("I")], batonaddr, "1")
assert_equal("[u'4294967295']", str(result["samples"][0]['data']), "Data match")
# l type
result = rpc.oraclesdata(globals()["oracle_{}".format("l")], "00000000ffffffff")
assert_success(result)
# baton
oraclesdata_l = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("l")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("l")], batonaddr, "1")
assert_equal("[u'-4294967296']", str(result["samples"][0]['data']), "Data match")
# L type
result = rpc.oraclesdata(globals()["oracle_{}".format("L")], "00000000ffffffff")
assert_success(result)
# baton
oraclesdata_L = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("L")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("L")], batonaddr, "1")
assert_equal("[u'18446744069414584320']", str(result["samples"][0]['data']), "Data match")
# h type
result = rpc.oraclesdata(globals()["oracle_{}".format("h")], "00000000ffffffff00000000ffffffff00000000ffffffff00000000ffffffff")
assert_success(result)
# baton
oraclesdata_h = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("h")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("h")], batonaddr, "1")
assert_equal("[u'ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000']", str(result["samples"][0]['data']), "Data match")
# Ihh type
result = rpc.oraclesdata(globals()["oracle_{}".format("Ihh")], "ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000ffffffff")
assert_success(result)
# baton
oraclesdata_Ihh = self.send_and_mine(result["hex"], rpc)
info = rpc.oraclesinfo(globals()["oracle_{}".format("Ihh")])
batonaddr = info['registered'][0]['baton']
result = rpc.oraclessamples(globals()["oracle_{}".format("Ihh")], batonaddr, "1")
print(result)
assert_equal("[u'4294967295', u'ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000', u'ffffffff00000000ffffffff00000000ffffffff00000000ffffffff00000000']", str(result["samples"][0]['data']), "Data match")
def run_test(self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
if not self.options.noshutdown:
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_oracles_tests()
if __name__ == '__main__':
CryptoconditionsOraclesTest().main()

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@@ -1,149 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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 CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsRewardsTest(CryptoconditionsTestFramework):
def run_rewards_tests(self):
rpc = self.nodes[0]
result = rpc.rewardsaddress()
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.rewardsaddress(self.pubkey)
for x in result.keys():
if x.find('ddress') > 0:
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_test(self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
if not self.options.noshutdown:
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_rewards_tests()
if __name__ == '__main__':
CryptoconditionsRewardsTest().main()

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@@ -1,264 +0,0 @@
#!/usr/bin/env python2
# Copyright (c) 2016-2023 The Hush developers
# 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 CryptoconditionsTestFramework
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
from cryptoconditions import assert_success, assert_error, generate_random_string
class CryptoconditionsTokenTest(CryptoconditionsTestFramework):
def run_token_tests(self):
rpc = self.nodes[0]
rpc1 = self.nodes[1]
result = rpc.tokenaddress()
assert_success(result)
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.tokenaddress(self.pubkey)
assert_success(result)
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.assetsaddress()
assert_success(result)
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
result = rpc.assetsaddress(self.pubkey)
assert_success(result)
for x in result.keys():
if x.find('ddress') > 0:
assert_equal(result[x][0], 'R')
# there are no tokens created yet
result = rpc.tokenlist()
assert_equal(result, [])
# trying to create token with negative 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)
# there are no token orders yet
result = rpc.tokenorders(tokenid)
assert_equal(result, [])
# getting token balance for non existing tokenid
result = rpc.tokenbalance(self.pubkey)
assert_error(result)
# 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)
# from other node (ensuring that second node have enough balance to cover txfee
# to get the actual error - not "not enough balance" one
rpc.sendtoaddress(rpc1.getnewaddress(), 1)
rpc.sendtoaddress(rpc1.getnewaddress(), 1)
rpc.generate(2)
self.sync_all()
result = rpc1.getbalance()
assert_greater_than(result, 0.1)
result = rpc1.tokencancelask(tokenid, testorderid)
assert_error(result)
# from valid node
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)
# from other node
result = rpc1.getbalance()
assert_greater_than(result, 0.1)
result = rpc1.tokencancelbid(tokenid, testorderid)
assert_error(result)
# from valid node
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_test(self):
print("Mining blocks...")
rpc = self.nodes[0]
rpc1 = self.nodes[1]
# utxos from block 1 become mature in block 101
if not self.options.noshutdown:
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_token_tests()
if __name__ == '__main__':
CryptoconditionsTokenTest().main()