def test1():
# In this scenario we are processing messages step by step
print('Starting call chain (step by step)...')
t_value = 4276994270
contract1.call_method('ping_neighbor',
dict(neighbor=neighbor2, value=t_value))
# Get internal message that was created by previous call
msg_ping = ts4.peek_msg()
assert eq(neighbor1, msg_ping.src)
assert eq(neighbor2, msg_ping.dst)
assert msg_ping.is_call('ping')
assert eq(t_value, int(msg_ping.params['request']))
# Dispatch created message
ts4.dispatch_one_message()
# Pick up event that was created by called method of the callee contract
msg_event1 = ts4.pop_event()
# Check correctness of event addresses
assert msg_event1.is_event('ReceivedRequest',
src=neighbor2,
dst=ts4.Address(None))
assert eq(t_value, int(msg_event1.params['request']))
# Get internal message that was created by last call
msg_pong = ts4.peek_msg()
assert eq(neighbor2, msg_pong.src)
assert eq(neighbor1, msg_pong.dst)
assert msg_pong.is_call('pong')
assert eq(t_value, int(msg_pong.params['reply']))
# Dispatch next message
ts4.dispatch_one_message()
# Pick up last event and check its parameters
msg_event2 = ts4.pop_event()
assert msg_event2.is_event('ReceivedReply',
src=neighbor1,
dst=ts4.Address(None))
assert eq(t_value, int(msg_event2.params['reply']))
# Working with raw JSON data is not always convenient. That's why we
# provide a way to decode data:
event2 = contract1.decode_event(msg_event2)
assert eq(t_value, event2.reply)
def __init__(self):
self.create_keypair()
super(Root,
self).__init__('DensRoot', {},
pubkey=self.public_key_,
private_key=self.private_key_,
nickname='Root',
override_address=ts4.Address('0:' + (64 * 'a')))
def test2():
# In most cases it is not necessary to control each message (while possible),
# so here is the shorter version of the same scenario
print('Starting call chain (in one step)...')
t_value = 255
contract1.call_method('ping_neighbor', dict(neighbor=neighbor2, value=t_value))
# Dispatch all internal messages in one step
ts4.dispatch_messages()
# Skip first event
ts4.pop_event()
# Processing last event
msg_event = ts4.pop_event()
# Ensure that dst address is empty (one more variant)
assert msg_event.is_event('ReceivedReply', src = neighbor1, dst = ts4.Address(None))
assert eq(t_value, int(msg_event.params['reply']))
def test1():
# Deploy a contract to virtual blockchain
tut02 = ts4.BaseContract('tutorial02', {})
# Call method to set integer value
t_number = 3735928559
tut02.call_method('set_number', {'value': t_number})
# Call a getter and ensure that we received correct integer value
assert eq(t_number, tut02.call_getter('m_number'))
# Call method to set address
t_address = ts4.Address(
'0:c4a31362f0dd98a8cc9282c2f19358c888dfce460d93adb395fa138d61ae5069')
tut02.call_method('set_address', {'value': t_address})
assert eq(t_address, tut02.call_getter('m_address'))
# Call method to set boolean value
t_bool = True
tut02.call_method('set_bool', {'value': t_bool})
assert eq(t_bool, tut02.call_getter('m_bool'))
# Call method to set bytes value. In ABI `bytes` type is represented as a hex string
t_bytes = ts4.Bytes('d090d091d092')
tut02.call_method('set_bytes', {'value': t_bytes})
assert eq(t_bytes, tut02.call_getter('m_bytes'))
# String values are represented in hex, so we need to use `str2bytes()` helper.
t_string = 'coffeeАБВ'
tut02.call_method('set_string', {'value': ts4.str2bytes(t_string)})
# Call the getter and ensure that we received correct string value.
assert eq(t_string, tut02.call_getter('m_string'))
# Call method to set array.
t_array = [1, 2, 3, 4, 5]
tut02.call_method('set_array', {'value': t_array})
assert eq(t_array, tut02.call_getter('m_array'))
# Check using structures
t_struct = dict(s_number=t_number, s_address=t_address, s_array=t_array)
tut02.call_method('set_struct', {'someStruct': t_struct})
assert eq(t_struct, tut02.call_getter('get_struct'))
def test1():
print('Transfer with bounce')
# Deploy the sender's contract and register nickname to be used in the output
sender = ts4.BaseContract('tutorial09', {}, nickname='Sender')
addr_sender = sender.address
balance_sender = 100 * ts4.GRAM
# Сheck the sender's initial balance. There are 100 grams by default
sender.ensure_balance(balance_sender)
# The contract address of the recipient
addr_recipient = ts4.Address(
'0:c4a31362f0dd98a8cc9282c2f19358c888dfce460d93adb395fa138d61ae5069')
# Register nickname to be used in the output
ts4.register_nickname(addr_recipient, 'Recipient1')
# Сheck the recipient's balance. Until is not deployed it has no balance
assert eq(None, ts4.get_balance(addr_recipient))
# Send grams to the recipient with bounce flag
amount = ts4.GRAM
params = dict(addr=addr_recipient, amount=amount, bounce=True)
sender.call_method('send_grams', params)
# Pick up internal message that was created by `send_grams()` call
msg_transfer = ts4.peek_msg()
assert eq(addr_sender, msg_transfer.src)
assert eq(addr_recipient, msg_transfer.dst)
assert eq(amount, msg_transfer.value)
# Dispatch created message
ts4.dispatch_one_message()
# Сheck the sender's current balance
sender.ensure_balance(balance_sender - amount)
# Pick up internal message that was bounced
msg_bounced = ts4.peek_msg()
assert eq(addr_recipient, msg_bounced.src)
assert eq(addr_sender, msg_bounced.dst)
assert eq(amount, msg_bounced.value)
assert eq(True, msg_bounced.bounced)
# Dispatch bounced message
ts4.dispatch_one_message()
# Balance of the recipient should stay empty
assert eq(None, ts4.get_balance(addr_recipient))
print('Transfer without bounce')
# Send grams to the recipient without bounce flag
params = dict(addr=addr_recipient, amount=amount, bounce=False)
sender.call_method('send_grams', params)
# Dispatch created message
ts4.dispatch_one_message()
# Check balance of the recipient, it should be equal to transferred amount
assert eq(amount, ts4.get_balance(addr_recipient))
# Сhecking the sender's balance, it should be decreased by the amount of the transfer
sender.ensure_balance(balance_sender - amount)
seg('Code installation')
root.call_method_signed('installPlatform', {'code': plat})
root.call_method_signed('installCertificate', {'code': cert})
root.call_method_signed('installAuction', {'code': auct})
root.call_method_signed('installBid', {'code': bid})
seg('Upgrade (setCode)')
root.call_method_signed('upgrade', {'code': rcod})
seg('Create test accounts')
tac, tad = {}, {}
for i in range(1, 9 + 1):
tac[i] = ts4.BaseContract('DensTest', {'_root': root.address()},
nickname='Test{}'.format(i),
override_address=ts4.Address('0:' +
(64 * str(i))))
tad[i] = tac[i].addr()
seg('Directly deploy some domains')
root.call_method_signed('directlyDeploy', {
'name': h('test1'),
'_owner': tad[1],
'expiry': bt + 1000
})
root.call_method_signed('directlyDeploy', {
'name': h('test2'),
'_owner': tad[2],
'expiry': bt + 20000
})
root.call_method_signed('directlyDeploy', {
'name': h('test3'),
# verbose: toggle to print additional execution info
ts4.init('contracts/', verbose=True)
# Load code and data of the second contract
code = ts4.load_code_cell('tutorial05_2.tvc')
data = ts4.load_data_cell('tutorial05_2.tvc')
# Register ABI of the second contract in the system beforehand
ts4.register_abi('tutorial05_2')
# Deploy the first contract and register nickname to be used in the output
contract1 = ts4.BaseContract('tutorial05_1',
dict(code=code, data=data),
nickname='Parent')
zero_address = ts4.Address('0:' + '0' * 64)
assert eq(zero_address, contract1.call_getter('m_address'))
# Ask contract1 to deploy contract2 with a given key
contract1.call_method('deploy', dict(key=123))
# Fetch the address of the contract to be deployed
address2 = contract1.call_getter('m_address')
ts4.ensure_address(address2)
# We register nickname for this contract so see it in the verbose output
ts4.register_nickname(address2, 'Child')
print('Deploying at {}'.format(address2))
# Dispatch unprocessed messages to actually construct a second contract
ts4.init('contracts/', verbose = False)
# Load a contract from .tvc-file and deploy it into a virtual blockchain.
# Constructor is called automatically.
# After deployment, "logstr: Constructor" will appear in the output to facilitate the debugging process.
tut01 = ts4.BaseContract('tutorial01', {})
# Call an integer getter and ensure that we received correct value
print("Fetching 'm_number'... ", end='')
expected_value = 3735928559
assert eq(expected_value, tut01.call_getter('m_number'))
print('ok')
# Call the getter and ensure that we received correct address
print("Fetching 'm_address'... ", end='')
expected_address = ts4.Address('0:c4a31362f0dd98a8cc9282c2f19358c888dfce460d93adb395fa138d61ae5069')
assert eq(expected_address, tut01.call_getter('m_address'))
print('ok')
# Call the getter and ensure that we received correct boolean value
print("Fetching 'm_bool'... ", end='')
assert eq(True, tut01.call_getter('m_bool'))
print('ok')
# Call string getter and check the returned value. We `bytes2str()` helper
# to decode string value from bytes
print("Fetching 'm_string'... ", end='')
assert eq('green tea', tut01.call_getter('m_string'))
print('ok')
# Working with bytes-type is very similar to working with strings
This tutorial shows you how to check the balance
of accounts with different states.
'''
import tonos_ts4.ts4 as ts4
eq = ts4.eq
# Initialize TS4 by specifying where the artifacts of the used contracts are located
# verbose: toggle to print additional execution info
ts4.init('contracts/', verbose=True)
# The address of a non-existing contract
empty_account = ts4.Address(
'0:c4a31362f0dd98a8cc9282c2f19358c888dfce460d93adb395fa138d61ae5069')
# Check balance of non-existing address
assert eq(None, ts4.get_balance(empty_account))
default_balance = 100 * ts4.GRAM
# Deploy the contract
tut08 = ts4.BaseContract('tutorial08', {})
# Сheck balance of the deployed contract. There are 100 grams by default
tut08.ensure_balance(default_balance)
# Another way to check the balance of contract
assert eq(default_balance, tut08.balance())
# Initialize TS4 by specifying where the artifacts of the used contracts are located
# verbose: toggle to print additional execution info
ts4.init('contracts/', verbose = True)
default_balance = 100*ts4.GRAM
# Deploy the sender's contract and register nickname to be used in the output
tut09 = ts4.BaseContract('tutorial09', {}, nickname = 'Sender')
addr_sender = tut09.address()
# Сheck the sender's initial balance. There are 100 grams by default
tut09.ensure_balance(default_balance)
# The contract address of the recipient
addr_recipient = ts4.Address('0:c4a31362f0dd98a8cc9282c2f19358c888dfce460d93adb395fa138d61ae5069')
# Register nickname to be used in the output
ts4.register_nickname(addr_recipient, 'Recipient')
# Сheck the recipient's balance. Until is not deployed it has no balance
assert eq(None, ts4.get_balance(addr_recipient))
# Send grams to the recipient with bounce flag
amount = ts4.GRAM
params = dict(addr = addr_recipient, amount = amount, bounce = True)
tut09.call_method('send_grams', params)
# Pick up internal message that was created by `send_grams()` call
msg_transfer = ts4.peek_msg()
assert eq(addr_sender, msg_transfer.src)
root.call_method_signed('installPlatform', {'code': plat})
root.call_method_signed('installCertificate', {'code': cert})
root.call_method_signed('installAuction', {'code': auct})
print("\n==================== Resolve 'hel' ====================")
caddr = root.call_getter('resolve', {'name': '68656c'})
# root.call_method('deployCertificate', {'name': '68656c6c6f'})
# ts4.dispatch_messages()
print("\n==================== Create tester ====================")
test = ts4.BaseContract('DensTest', {'_root': root.address()},
nickname='Test',
override_address=ts4.Address('0:' + (64 * '1')))
test2 = ts4.BaseContract('DensTest', {'_root': root.address()},
nickname='Test2',
override_address=ts4.Address('0:' + (64 * '2')))
test3 = ts4.BaseContract('DensTest', {'_root': root.address()},
nickname='Test3',
override_address=ts4.Address('0:' + (64 * '3')))
test4 = ts4.BaseContract('DensTest', {'_root': root.address()},
nickname='Test4',
override_address=ts4.Address('0:' + (64 * '4')))
print(
"\n==================== Perform directlyDeploy 'test' on root ===================="
)
root.call_method_signed(
'directlyDeploy', {
payload=payload)
print(ts4.get_balance(smcSafeMultisigWallet.addr()))
smcSafeMultisigWallet.call_method('sendTransaction',
params,
private_key=private_key)
ts4.dispatch_messages()
padawanAddress = (demiurge.call_getter_raw('getDeployed',
{}))['padawans'][public_key]['addr']
smcPadawan = ts4.BaseContract(
'Padawan',
None,
address=ts4.Address(padawanAddress),
nickname='PadawanWallet',
)
# Ensure Padawan has correct balance
smcPadawan.ensure_balance((5 - 2) * ts4.GRAM)
#payloadCreateTokenAccount = helper.call_getter('encode_createTokenAccount_call', {'tokenRoot': smcRT.addr()})
#smcSafeMultisigWallet.call_method('sendTransaction', dict(
# dest = smcPadawan.addr(),
# value = 6_000_000_000,
# bounce = False,
# flags = 1,
# payload = payloadCreateTokenAccount
# ), private_key=private_key)
