def test_confirm_input(self):
FEE = 10000
# create a fake Spendable
COIN_VALUE = 100000000
spendables = [
Spendable(COIN_VALUE, standard_tx_out_script(BITCOIN_ADDRESSES[0]),
FAKE_HASHES[1], 0)
]
tx_1 = create_signed_tx(spendables,
BITCOIN_ADDRESSES[1:2],
wifs=WIFS[:1])
spendables = tx_1.tx_outs_as_spendable()
tx_db = dict((tx.hash(), tx) for tx in [tx_1])
tx_2 = create_signed_tx(spendables,
BITCOIN_ADDRESSES[2:3],
wifs=WIFS[:3])
tx_2.validate_unspents(tx_db)
tx_2 = create_signed_tx([s.as_dict() for s in spendables],
BITCOIN_ADDRESSES[2:3],
wifs=WIFS[:3])
tx_2.validate_unspents(tx_db)
tx_2 = create_signed_tx([s.as_text() for s in spendables],
BITCOIN_ADDRESSES[2:3],
wifs=WIFS[:3])
tx_2.validate_unspents(tx_db)
def test_confirm_input_raises(self):
# create a fake Spendable
COIN_VALUE = 100000000
spendables = [Spendable(COIN_VALUE, script_for_address(BITCOIN_ADDRESSES[0]), FAKE_HASH, 0)]
tx_1 = create_signed_tx(spendables, BITCOIN_ADDRESSES[1:2], wifs=WIFS[:1])
spendables = tx_1.tx_outs_as_spendable()
spendables[0].coin_value += 100
tx_db = dict((tx.hash(), tx) for tx in [tx_1])
tx_2 = create_signed_tx(spendables, BITCOIN_ADDRESSES[2:3], wifs=WIFS[:3])
self.assertRaises(BadSpendableError, tx_2.validate_unspents, tx_db)
def test_confirm_input_raises(self):
FEE = 10000
# create a fake Spendable
COIN_VALUE = 100000000
spendables = [Spendable(COIN_VALUE, standard_tx_out_script(BITCOIN_ADDRESSES[0]), FAKE_HASHES[1], 0)]
tx_1 = create_signed_tx(spendables, BITCOIN_ADDRESSES[1:2], wifs=WIFS[:1])
spendables = tx_1.tx_outs_as_spendable()
spendables[0].coin_value += 100
tx_db = dict((tx.hash(), tx) for tx in [tx_1])
tx_2 = create_signed_tx(spendables, BITCOIN_ADDRESSES[2:3], wifs=WIFS[:3])
self.assertRaises(BadSpendableError, tx_2.validate_unspents, tx_db)
def test_simple_spend(self):
FEE = 10000
# create a fake Spendable
COIN_VALUE = 100000000
spendables = [Spendable(COIN_VALUE, standard_tx_out_script(BITCOIN_ADDRESSES[0]), FAKE_HASHES[1], 0)]
EXPECTED_IDS = [
"d28bff6c4a8a0f9e7d5b7df0670d07b43c5613d8c9b14e84707b1e2c0154a978",
"7afbe63b00171b18f806ebd48190ebc1c68cadf286a85489c06ebe43d146489e",
"2b90c150ba1d080a0816952f5d9c2642d408989cbc4d4c540591c8c9241294bd",
"17b0b5b22887081595c1a9ad153e903f63bb8682ae59d6082df018dc617e5e67",
"dff1b34c243becb096ad2a2d6119973067a8137cc8bf95615e742bbf6f0944c1",
"206bbfbb759a8f91901d86b62390d7587f6097a32994ece7752d143fc8a02cee",
"7841412716ad35cbc9954e547ba85be89e5ed0b34ed5fb8d7594517318dc10d6",
"8b7e643bf47db46ada7a75b8498990b111fe20917b5610ca6759b8b0078ccd5e",
"5756f0a6d5a2bbb93a07f0729d3773aaafd21393ede3ec0e20b0b5219ca45548",
"32dcbb34965ea72d2caa59eb1e907aa28bac2afea43214c1809f5d8ed360f30e",
]
for count in range(1, 11):
tx = create_signed_tx(spendables, BITCOIN_ADDRESSES[1:count+1], wifs=WIFS[:1])
self.assertEqual(tx.bad_signature_count(), 0)
self.assertEqual(tx.fee(), FEE)
self.assertEqual(tx.id(), EXPECTED_IDS[count-1])
for idx in range(1, count+1):
self.assertEqual(tx.txs_out[idx-1].bitcoin_address(), BITCOIN_ADDRESSES[idx])
# TODO: add check that s + s < generator for each signature
for i in range(count):
extra = (1 if i < ((COIN_VALUE - FEE) % count) else 0)
self.assertEqual(tx.txs_out[i].coin_value, (COIN_VALUE - FEE)//count + extra)
def createTX(payment):
(content,(addrToSend,amountToSend)) = payment
if content is None:
pass
# it should include a reason for the error....
# raise an exception
return None # actually instead of returning it should raise an exception....
else:
(utxos,retAddr) = content
keys = []
spendings = []
for ((txid,index),amount,key) in utxos:
keys += [key.wif()]
spendings += [ Spendable( amount
, ScriptPayToAddress( key.hash160()).script()
, h2b_rev(txid)
, index
)
]
print "########################################################################################"
print ('spendings :',spendings)
print ('addr to send :',addrToSend)
print ('amountToSend :',amountToSend)
print ('retAddr :',retAddr)
print ('wif list :',keys)
print ('transaction :',create_signed_tx(spendings,[(addrToSend,amountToSend),retAddr],wifs=keys, fee="standard").as_hex())
print "########################################################################################"
def send(self, payables, fee, change_address=None):
"""
Send coins list of payees with a fee and return the remaining coins
to the change address (defaults to sender address)
Payables should have their coin value in satoshis
"""
spendables = self.get_unspents()
# calculate leftover coins
total_in = sum([s.coin_value for s in spendables])
total_out = sum([p.value for p in payables])
leftover = total_in - (total_out + fee)
if leftover > 0:
payables.append(Payable(change_address or self.address, leftover))
# create a signed transaction
signed_tx = create_signed_tx(spendables,
payables, [
self.key.wif(),
],
netcode=self.netcode)
# broadcast transaction to bitcoin network
for network_api in self.network_apis:
try:
return network_api.send(signed_tx)
except NetworkAPIError:
continue
raise NetworkAPIError("All network calls for this method failed!")
def test_simple_spend(self):
FEE = 10000
# create a fake Spendable
COIN_VALUE = 100000000
spendables = [Spendable(COIN_VALUE, standard_tx_out_script(BITCOIN_ADDRESSES[0]), FAKE_HASHES[1], 0)]
EXPECTED_IDS = [
"d28bff6c4a8a0f9e7d5b7df0670d07b43c5613d8c9b14e84707b1e2c0154a978",
"7afbe63b00171b18f806ebd48190ebc1c68cadf286a85489c06ebe43d146489e",
"2b90c150ba1d080a0816952f5d9c2642d408989cbc4d4c540591c8c9241294bd",
"17b0b5b22887081595c1a9ad153e903f63bb8682ae59d6082df018dc617e5e67",
"dff1b34c243becb096ad2a2d6119973067a8137cc8bf95615e742bbf6f0944c1",
"206bbfbb759a8f91901d86b62390d7587f6097a32994ece7752d143fc8a02cee",
"7841412716ad35cbc9954e547ba85be89e5ed0b34ed5fb8d7594517318dc10d6",
"8b7e643bf47db46ada7a75b8498990b111fe20917b5610ca6759b8b0078ccd5e",
"5756f0a6d5a2bbb93a07f0729d3773aaafd21393ede3ec0e20b0b5219ca45548",
"32dcbb34965ea72d2caa59eb1e907aa28bac2afea43214c1809f5d8ed360f30e",
]
for count in range(1, 11):
tx = create_signed_tx(spendables, BITCOIN_ADDRESSES[1:count+1], wifs=WIFS[:1])
self.assertEqual(tx.bad_signature_count(), 0)
self.assertEqual(tx.fee(), FEE)
self.assertEqual(tx.id(), EXPECTED_IDS[count-1])
# TODO: add check that s + s < generator for each signature
for i in range(count):
extra = (1 if i < ((COIN_VALUE - FEE) % count) else 0)
self.assertEqual(tx.txs_out[i].coin_value, (COIN_VALUE - FEE)//count + extra)
def createTX(payment):
(content, (addrToSend, amountToSend)) = payment
if content is None:
pass
# it should include a reason for the error....
# raise an exception
return None # actually instead of returning it should raise an exception....
else:
(utxos, retAddr) = content
keys = []
spendings = []
for ((txid, index), amount, key) in utxos:
keys += [key.wif()]
spendings += [Spendable(amount, ScriptPayToAddress(key.hash160()).script(), h2b_rev(txid), index)]
print "########################################################################################"
print ("spendings :", spendings)
print ("addr to send :", addrToSend)
print ("amountToSend :", amountToSend)
print ("retAddr :", retAddr)
print ("wif list :", keys)
print (
"transaction :",
create_signed_tx(spendings, [(addrToSend, amountToSend), retAddr], wifs=keys, fee="standard").as_hex(),
)
print "########################################################################################"
def test_confirm_input(self):
FEE = 10000
# create a fake Spendable
COIN_VALUE = 100000000
spendables = [Spendable(COIN_VALUE, standard_tx_out_script(BITCOIN_ADDRESSES[0]), FAKE_HASHES[1], 0)]
tx_1 = create_signed_tx(spendables, BITCOIN_ADDRESSES[1:2], wifs=WIFS[:1])
spendables = tx_1.tx_outs_as_spendable()
tx_db = dict((tx.hash(), tx) for tx in [tx_1])
tx_2 = create_signed_tx(spendables, BITCOIN_ADDRESSES[2:3], wifs=WIFS[:3])
tx_2.validate_unspents(tx_db)
tx_2 = create_signed_tx([s.as_dict() for s in spendables], BITCOIN_ADDRESSES[2:3], wifs=WIFS[:3])
tx_2.validate_unspents(tx_db)
tx_2 = create_signed_tx([s.as_text() for s in spendables], BITCOIN_ADDRESSES[2:3], wifs=WIFS[:3])
tx_2.validate_unspents(tx_db)
def processSendBitcoin(fromPrivateKey, toPublicKey, amountOfBitcoin):
bcip = BlockchainInfoProvider("BTC")
amountOfSatoshi = int(amountOfBitcoin * 100000000)
spendables = spendables_for_address(wif2address(fromPrivateKey), "BTC")
try:
tx = create_signed_tx(spendables, [(toPublicKey, amountOfSatoshi), wif2address(fromPrivateKey)], [fromPrivateKey], tx_fee.TX_FEE_PER_THOUSAND_BYTES)
except Exception as e:
print "could not build transaction."
print e
return False
try:
bcip.broadcast_tx(tx)
print "tx broadcasted: ", tx.id()
return tx.id()
except:
print "tx failed to be broadcasted"
return False
def createTx(self):
# address = self.fromaddress.text()
# destination = self.sendto.text()
address = "mti8znMQPkP9LnPcce7i3LQRuSGZ38PVPV"
destination = "ms4cSWpPGb6tBzbBXNuBwsarg1SNYvkjxg"
#あらかじめ送信元アドレスに対応する秘密鍵を入力しておく
wif = "cNJm4inEA9xreDHntBB9gAFj8V6aSn9sqdVgDdJJGrN9Ys8b8vzD"
sndtx = BlockchainInfoProvider('blockr.io')
print("before")
assert is_valid_wif(wif)
print("after")
spendables = spendables_for_address(address, "BTC")
tx = create_signed_tx(spendables, payables=[destination], wifs=[wif])
sndtx.broadcast_tx(tx)
self.transaction.setText(tx.as_hex())
def _make_tx(self, input_script, other_scripts=[]):
from pycoin.tx.tx_utils import create_signed_tx
from pycoin.solve.utils import build_p2sh_lookup
cv = int(50 * 1e8)
key = self._key
sec = key.sec()
wif = key.wif()
address = key.address()
p2sh_lookup = build_p2sh_lookup(other_scripts)
coinbase_tx = Tx.coinbase_tx(public_key_sec=sec, coin_value=cv)
coinbase_tx.txs_out[0].script = input_script
spendable = coinbase_tx.tx_outs_as_spendable()[0]
payables = [(address, cv)]
tx = create_signed_tx(spendables=[spendable],
payables=payables,
wifs=[wif],
p2sh_lookup=p2sh_lookup)
tx.unspents = [spendable]
print(tx.as_hex(include_unspents=True))
return tx
while 1:
print("enter the %s => " % which, end='')
netcode = input()
if netcode:
print(netcode)
return netcode
print("invalid netcode, please try again")
src_address = get_address("source")
netcode = get_net_code("netcode")
spendables = spendables_for_address(src_address, netcode)
print(spendables)
while 1:
print("enter the WIF for %s=> " % src_address, end='')
wif = input()
is_valid = is_wif_valid(wif)
if is_valid:
break
print("invalid wif, please try again")
key = Key.from_text(wif)
if src_address not in (key.address(use_uncompressed=False),
key.address(use_uncompressed=True)):
print("** WIF doesn't correspond to %s" % src_address)
print("The secret exponent is %d" % key.secret_exponent())
dst_address = get_address("destination")
tx = create_signed_tx(spendables, payables=[dst_address], wifs=[wif])
print("here is the signed output transaction")
print(tx.as_hex())
def test_sign(self, keynums_satoshi, out_addr, out_satoshi, change_keynum,
change_satoshi, prevtx_keynums, prevtx_outputs,
prevtx_inputs):
"""
Performs a tx signing test, comparing Polly's signed tx against the reference wallet.
Basic tx signing parameters:
keynums_satoshi - list of tuples (keynum, satoshis) with key indices and their unspent value to
use as tx inputs. Funding above out_satoshi + change_satoshi will be fees.
out_addr - output address in bitcoin address format.
out_satoshi - output amount in satoshis.
change_keynum - change key index in the wallet, use None for no change.
change_satoshi - change amount in satoshis, use 0 for no change.
Supporting (previous) txs will be created to fund keynums and are controlled by these parameters:
prevtx_keynums - keynums will show up as outputs of previous txs. A number randomly picked
from this list controls how many keynums are chosen to include per prev tx.
prevtx_outputs - in addition to previous tx outputs funding keynums, other outputs may
be present. A number randomly picked from this list controls how many
ignored outputs are injected per keynum.
prevtx_inputs - previous txs need inputs too. A number randomly picked from this list
controls how many inputs are chosen per previous tx.
"""
total_in_satoshi = sum(satoshi for _, satoshi in keynums_satoshi)
fee_satoshi = total_in_satoshi - out_satoshi - change_satoshi
chain0 = self.wallet.subkey(0, is_hardened=True).subkey(0)
chain1 = self.wallet.subkey(0, is_hardened=True).subkey(1)
assert total_in_satoshi >= out_satoshi + change_satoshi
assert len(keynums_satoshi) <= 32
#
# Step 1: send the inputs and outputs to use in the signed tx
#
# Create the (key num, compressed public key) tuple, input keys assume an m/0h/0/keynum path for now.
keys = [
(keynum,
encoding.public_pair_to_sec(chain0.subkey(keynum).public_pair))
for (keynum, _) in keynums_satoshi
]
# Convert base58 address to raw hex address
out_addr_160 = encoding.bitcoin_address_to_hash160_sec(out_addr)
print()
print("Sign tx parameters:", "")
for i, (keynum, satoshi) in enumerate(keynums_satoshi):
print("{:<10}{:16.8f} btc < key {}".format(
" inputs" if 0 == i else "", satoshi / 100000000, keynum))
print("{:<10}{:16.8f} btc > {}".format(" output",
out_satoshi / 100000000,
self.hexstr(out_addr_160)))
print("{:<10}{:16.8f} btc > key {}".format(" change",
change_satoshi / 100000000,
change_keynum))
print("{:<10}{:16.8f} btc".format(" fee", fee_satoshi / 100000000))
print("{:<10}{:16.8f} btc".format(" total",
total_in_satoshi / 100000000))
print()
print(self.PAD.format("Send tx parameters"), end='')
# ---> send to Polly
self.polly.send_sign_tx(keys, out_addr_160, out_satoshi, change_keynum,
change_satoshi)
print(self.__outok())
#
# Step 2: send previous txs to fund the inputs
#
print()
cur = 0
prevtx_info = []
while cur < len(keynums_satoshi):
prevtx_outputs_satoshi = []
# Calculate how many keynums will be associated with this prev tx
end = min(cur + random.choice(prevtx_keynums),
len(keynums_satoshi))
# Create the prev tx output list
for keynum, satoshi in keynums_satoshi[cur:end]:
# Inject a random number of outputs not associated with tx input keynums
for _ in range(0, random.choice(prevtx_outputs)):
prevtx_outputs_satoshi.append(
(random.randint(0, 0x7FFFFFFF),
random.randint(0, 2099999997690000)))
# Add the outputs funding the tx input keynums
prevtx_outputs_satoshi.append((keynum, satoshi))
# Create output script
addr = chain0.subkey(keynum, as_private=True).bitcoin_address()
script = standard_tx_out_script(addr)
# Capture some info we'll use later to verify the signed tx
prevtx_info.append((
keynum,
satoshi,
script,
0, # This is the hash and will be replaced later
len(prevtx_outputs_satoshi) -
1)) # Index of the valid output
print("{:30}{}".format(
"Make prev tx for keys", " ".join(
str(keynum)
for (keynum, _, _, _, _) in prevtx_info[cur:])))
# Create the prev tx
prevtx = self.create_prev_tx(
win=Wallet.from_master_secret(
bytes(0)), # create a dummy wallet
in_keynum=list(range(0, random.choice(prevtx_inputs))),
sources_per_input=1,
wout=chain0,
out_keynum_satoshi=prevtx_outputs_satoshi,
fees_satoshi=random.randint(100, 1000))
# We have built the prev tx, calculate its hash (and reverse the bytes)
prevtx_hash = encoding.double_sha256(prevtx)[::-1]
# Update the hashes now that we have a full prev tx
for i, (keynum, satoshi, script, _,
outidx) in enumerate(prevtx_info[cur:]):
prevtx_info[i + cur] = (keynum, satoshi, script, prevtx_hash,
outidx)
# Create the index table that matches a keynum index with an ouput index in this prev tx
idx_table = [
(keynum_idx + cur, outidx)
for keynum_idx, (_, _, _, _,
outidx) in enumerate(prevtx_info[cur:])
]
print(self.PAD.format("Send prev tx "), end='')
# ---> send to Polly
self.polly.send_prev_tx(idx_table, prevtx)
print(self.__outok())
cur = end
#
# Step 3: generate a signed tx with the reference wallet and compare against Polly's
#
spendables = []
wifs = []
# Make sure that the inputs add up correctly, and prep the input_sources for reference wallet signing
for (keynum, satoshi, script, prevtx_hash, outidx) in prevtx_info:
spendables.append(Spendable(satoshi, script, prevtx_hash, outidx))
wifs.append(chain0.subkey(keynum, as_private=True).wif())
change_addr = chain1.subkey(change_keynum).bitcoin_address()
payables = [(out_addr, out_satoshi), (change_addr, change_satoshi)]
print()
print(self.PAD.format("Make reference signature"))
signed_tx = create_signed_tx(spendables, payables, wifs, fee_satoshi)
signed_tx = self.get_tx_bytes(signed_tx)
print(self.PAD.format("Get signed tx"), end='', flush=True)
# <--- get the signed tx from Polly
polly_signed_tx = self.polly.send_get_signed_tx()
#print(self.txstr(polly_signed_tx))
#print(self.txstr(signed_tx))
print(self.__outok())
# Compare reference wallet signed tx with polly's
assert signed_tx == polly_signed_tx, "test_sign: signature mismatch\nExpected:\n" + self.hexstr(
signed_tx) + "\n\nActual:\n" + self.hexstr(polly_signed_tx)
print "enter the %s address=>"%which,
address=input();
is_valid=is_address_valid(address)
if is_valid:
return address
print 'invalid address, please try again'
src_address=get_address("source")
spendables=spendables_for_address(src_address)
print spendables
while 1:
print "enter the WIF for %s" %src_address,
wif=input()
is_valid=is_wif_valid(wif)
if is_valid:
break
print("invalid wif, please try again")
key = key.from_text(wif)
if src_address not in (key.address(use_uncompressed=False), key.address(use_uncompressed=True)):
print("**WIF doesn't correspond to %s" %src_address)
print("The secret exponent is %d"%key.secret_exponent())
dst_address=get_address("destination")
tx=create_signed_tx(spendables, payables=[dst_address], wifs=[wif])
print 'here is the signed output transaction'
print(tx.as_hex())
utxos = json.loads(urlopen(URL).read().decode("utf8"))
utxo = utxos[0]
return Spendable(utxo['amount'], h2b(utxo.get("scriptPubKey")),
h2b_rev(utxo.get("txid")), utxo.get("vout"))
amount, script_hex = get_spendable(from_address)
spendable = Spendable(amount, script_hex)
##################
# TODO: 设计amount计算
tx = create_signed_tx([spendable],
[(to_address, btc_to_satoshi("0.00005")),
(btc_withdraw_address, btc_to_satoshi("0.0015"))],
fee=btc_to_satoshi("0.00005"),
wifs=[master_key.wif()],
netcode=args.netcode)
tx_as_hex = tx.as_hex()
print tx_as_hex
# TODO 节点选取
# url = "https://test-insight.bitpay.com/api/tx/send"
# data = urlencode(dict(rawtx=tx_as_hex)).encode("utf8")
# AGENT = 'pycoin/%s' % version
#req = request.Request(url, data=data)
#r = request.urlopen(req).read()
#print r
def process(request):
if request.method == 'POST':
# auto deposit function
if request.POST.get('VERY_LONG_RANDOM_STRING'):
account_record = AccountModel.objects.create(
return_address=chikun_address)
account_record.save()
deposit_address = master_public_key.subkey(
account_record.id).address()
return HttpResponse(deposit_address)
response = system('ping -c 1 -w 3 %s > /dev/null 2>&1' % hostname)
if request.POST.get('v_key') == v_key and response == 0:
# check balance stats for all balance 0's
zero_list = AccountModel.objects.filter(balance=0)
if zero_list.exists():
for i in zero_list:
address = master_public_key.subkey(i.id).address()
try:
balance = Decimal(
urlopen(
'https://%s/q/addressbalance/%s?confirmations=%s&api_code=%s'
% (hostname, address, confirmations,
api_code)).read()) / 100000000 # REMOTE
except Exception as e:
lf = open('logFile', 'a')
print('try one: ', end='')
print(e, file=lf)
lf.close()
return HttpResponse(status=204)
if balance >= Decimal('0.001'):
i.balance = balance
i.checked += 1
i.save()
# match valid accounts and make payments
nonzero_list = AccountModel.objects.filter(
balance__gt=0).order_by('?')
if len(nonzero_list) > 1:
v = True
limit = len(nonzero_list) / 2 if not len(
nonzero_list) % 2 else (len(nonzero_list) - 1) / 2
nonzero_list = nonzero_list[:limit * 2]
else:
v = False
if v:
slice_one = nonzero_list[:limit]
slice_two = nonzero_list[limit:]
c = 0
while c < limit:
if not slice_one[c].balance == slice_two[c].balance:
(winner, loser) = (
slice_one[c], slice_two[c]
) if slice_one[c].balance > slice_two[c].balance else (
slice_two[c], slice_one[c])
winner_key = Key.from_text(
request.POST['private_key']).subkey(winner.id)
loser_key = Key.from_text(
request.POST['private_key']).subkey(loser.id)
try:
spendables = spendables_for_address(
'%s&api_code=%s' %
(winner_key.address(),
api_code)) + spendables_for_address(
'%s&api_code=%s' %
(loser_key.address(), api_code))
signed_tx = create_signed_tx(
spendables,
[(chikun_address,
int((loser.balance * vig) * 100000000)),
winner.return_address],
wifs=[winner_key.wif(),
loser_key.wif()],
fee="standard")
pushtx(signed_tx.as_hex())
ResultModel.objects.create(
winning_address=winner_key.address(),
winning_deposit=str(winner.balance),
losing_address=loser_key.address(),
losing_deposit=str(loser.balance),
txid=signed_tx.id()).save()
for i in (winner, loser):
ArchiveModel.objects.create(
**AccountModel.objects.filter(
id=i.id).values()[0]).save()
AccountModel.objects.filter(id=i.id).delete()
except Exception as e:
lf = open('logFile', 'a')
print('try two: ', end='')
print(e, file=lf)
lf.close()
for i in (winner, loser):
BrokenModel.objects.create(
**AccountModel.objects.filter(
id=i.id).values()[0]).save()
AccountModel.objects.filter(id=i.id).delete()
c += 1
# remove invalid accounts
invalid_accounts = AccountModel.objects.filter(
checked__gt=24).filter(balance=0) # four hours
if invalid_accounts.exists():
for i in invalid_accounts:
InvalidModel.objects.create(**AccountModel.objects.filter(
id=i.id).values()[0]).save()
AccountModel.objects.filter(id=i.id).delete()
return HttpResponse(status=204)
return HttpResponse(
'<h1>Not Found</h1><p>The requested URL /with was not found on this server.</p>',
status=404)
def test_sign(self, keynums_satoshi, out_addr, out_satoshi, change_keynum, change_satoshi, prevtx_keynums, prevtx_outputs, prevtx_inputs):
"""
Performs a tx signing test, comparing Polly's signed tx against the reference wallet.
Basic tx signing parameters:
keynums_satoshi - list of tuples (keynum, satoshis) with key indices and their unspent value to
use as tx inputs. Funding above out_satoshi + change_satoshi will be fees.
out_addr - output address in bitcoin address format.
out_satoshi - output amount in satoshis.
change_keynum - change key index in the wallet, use None for no change.
change_satoshi - change amount in satoshis, use 0 for no change.
Supporting (previous) txs will be created to fund keynums and are controlled by these parameters:
prevtx_keynums - keynums will show up as outputs of previous txs. A number randomly picked
from this list controls how many keynums are chosen to include per prev tx.
prevtx_outputs - in addition to previous tx outputs funding keynums, other outputs may
be present. A number randomly picked from this list controls how many
ignored outputs are injected per keynum.
prevtx_inputs - previous txs need inputs too. A number randomly picked from this list
controls how many inputs are chosen per previous tx.
"""
total_in_satoshi = sum(satoshi for _, satoshi in keynums_satoshi)
fee_satoshi = total_in_satoshi - out_satoshi - change_satoshi
chain0 = self.wallet.subkey(0, is_hardened = True).subkey(0)
chain1 = self.wallet.subkey(0, is_hardened = True).subkey(1)
assert total_in_satoshi >= out_satoshi + change_satoshi
assert len(keynums_satoshi) <= 32
#
# Step 1: send the inputs and outputs to use in the signed tx
#
# Create the (key num, compressed public key) tuple, input keys assume an m/0h/0/keynum path for now.
keys = [(keynum, encoding.public_pair_to_sec(chain0.subkey(keynum).public_pair))
for (keynum, _) in keynums_satoshi]
# Convert base58 address to raw hex address
out_addr_160 = encoding.bitcoin_address_to_hash160_sec(out_addr)
print()
print("Sign tx parameters:", "")
for i, (keynum, satoshi) in enumerate(keynums_satoshi):
print("{:<10}{:16.8f} btc < key {}".format (" inputs" if 0 == i else "", satoshi / 100000000, keynum))
print("{:<10}{:16.8f} btc > {}".format (" output", out_satoshi / 100000000, self.hexstr(out_addr_160)))
print("{:<10}{:16.8f} btc > key {}".format (" change", change_satoshi / 100000000, change_keynum))
print("{:<10}{:16.8f} btc".format (" fee", fee_satoshi / 100000000))
print("{:<10}{:16.8f} btc".format (" total", total_in_satoshi / 100000000))
print()
print(self.PAD.format("Send tx parameters"), end='')
# ---> send to Polly
self.polly.send_sign_tx(keys, out_addr_160, out_satoshi, change_keynum, change_satoshi)
print(self.__outok())
#
# Step 2: send previous txs to fund the inputs
#
print()
cur = 0
prevtx_info = []
while cur < len(keynums_satoshi) :
prevtx_outputs_satoshi = []
# Calculate how many keynums will be associated with this prev tx
end = min(cur + random.choice(prevtx_keynums), len(keynums_satoshi))
# Create the prev tx output list
for keynum, satoshi in keynums_satoshi[cur:end] :
# Inject a random number of outputs not associated with tx input keynums
for _ in range(0, random.choice(prevtx_outputs)) :
prevtx_outputs_satoshi.append((random.randint(0, 0x7FFFFFFF),
random.randint(0, 2099999997690000)))
# Add the outputs funding the tx input keynums
prevtx_outputs_satoshi.append((keynum, satoshi))
# Create output script
addr = chain0.subkey(keynum, as_private = True).bitcoin_address()
script = standard_tx_out_script(addr)
# Capture some info we'll use later to verify the signed tx
prevtx_info.append((keynum,
satoshi,
script,
0, # This is the hash and will be replaced later
len(prevtx_outputs_satoshi) - 1)) # Index of the valid output
print("{:30}{}".format("Make prev tx for keys", " ".join(str(keynum) for (keynum, _, _, _, _) in prevtx_info[cur:])))
# Create the prev tx
prevtx = self.create_prev_tx(win = Wallet.from_master_secret(bytes(0)), # create a dummy wallet
in_keynum = list(range(0, random.choice(prevtx_inputs))),
sources_per_input = 1,
wout = chain0,
out_keynum_satoshi = prevtx_outputs_satoshi,
fees_satoshi = random.randint(100, 1000))
# We have built the prev tx, calculate its hash (and reverse the bytes)
prevtx_hash = encoding.double_sha256(prevtx)[::-1]
# Update the hashes now that we have a full prev tx
for i, (keynum, satoshi, script, _, outidx) in enumerate(prevtx_info[cur:]) :
prevtx_info[i + cur] = (keynum, satoshi, script, prevtx_hash, outidx)
# Create the index table that matches a keynum index with an ouput index in this prev tx
idx_table = [(keynum_idx + cur, outidx) for keynum_idx, (_, _, _, _, outidx) in enumerate(prevtx_info[cur:])]
print(self.PAD.format("Send prev tx "), end='')
# ---> send to Polly
self.polly.send_prev_tx(idx_table, prevtx)
print(self.__outok())
cur = end
#
# Step 3: generate a signed tx with the reference wallet and compare against Polly's
#
spendables = []
wifs = []
# Make sure that the inputs add up correctly, and prep the input_sources for reference wallet signing
for (keynum, satoshi, script, prevtx_hash, outidx) in prevtx_info:
spendables.append(Spendable(satoshi, script, prevtx_hash, outidx))
wifs.append(chain0.subkey(keynum, as_private = True).wif())
change_addr = chain1.subkey(change_keynum).bitcoin_address()
payables = [(out_addr, out_satoshi), (change_addr, change_satoshi)]
print()
print(self.PAD.format("Make reference signature"))
signed_tx = create_signed_tx(spendables, payables, wifs, fee_satoshi)
signed_tx = self.get_tx_bytes(signed_tx)
print(self.PAD.format("Get signed tx"), end='', flush = True)
# <--- get the signed tx from Polly
polly_signed_tx = self.polly.send_get_signed_tx()
#print(self.txstr(polly_signed_tx))
#print(self.txstr(signed_tx))
print(self.__outok())
# Compare reference wallet signed tx with polly's
assert signed_tx == polly_signed_tx, "test_sign: signature mismatch\nExpected:\n" + self.hexstr(signed_tx) + "\n\nActual:\n" + self.hexstr(polly_signed_tx)
def process(request):
if request.method == 'POST':
# auto deposit function
if request.POST.get('VERY_LONG_RANDOM_STRING'):
account_record = AccountModel.objects.create(return_address=chikun_address)
account_record.save()
deposit_address = master_public_key.subkey(account_record.id).address()
return HttpResponse(deposit_address)
response = system('ping -c 1 -w 3 %s > /dev/null 2>&1' % hostname)
if request.POST.get('v_key') == v_key and response == 0:
# check balance stats for all balance 0's
zero_list = AccountModel.objects.filter(balance=0)
if zero_list.exists():
for i in zero_list:
address = master_public_key.subkey(i.id).address()
try:
balance = Decimal(urlopen('https://%s/q/addressbalance/%s?confirmations=%s&api_code=%s' % (hostname, address, confirmations, api_code)).read()) / 100000000 # REMOTE
except Exception as e:
lf = open('logFile', 'a')
print('try one: ', end='')
print(e, file=lf)
lf.close()
return HttpResponse(status=204)
if balance >= Decimal('0.001'):
i.balance = balance
i.checked += 1
i.save()
# match valid accounts and make payments
nonzero_list = AccountModel.objects.filter(balance__gt=0).order_by('?')
if len(nonzero_list) > 1:
v = True
limit = len(nonzero_list) / 2 if not len(nonzero_list) % 2 else (len(nonzero_list) - 1) / 2
nonzero_list = nonzero_list[:limit * 2]
else:
v = False
if v:
slice_one = nonzero_list[:limit]
slice_two = nonzero_list[limit:]
c = 0
while c < limit:
if not slice_one[c].balance == slice_two[c].balance:
(winner, loser) = (slice_one[c], slice_two[c]) if slice_one[c].balance > slice_two[c].balance else (slice_two[c], slice_one[c])
winner_key = Key.from_text(request.POST['private_key']).subkey(winner.id)
loser_key = Key.from_text(request.POST['private_key']).subkey(loser.id)
try:
spendables = spendables_for_address('%s&api_code=%s' % (winner_key.address(), api_code)) + spendables_for_address('%s&api_code=%s' % (loser_key.address(), api_code))
signed_tx = create_signed_tx(spendables,
[(chikun_address, int((loser.balance * vig) * 100000000)), winner.return_address],
wifs=[winner_key.wif(), loser_key.wif()], fee="standard")
pushtx(signed_tx.as_hex())
ResultModel.objects.create(winning_address=winner_key.address(), winning_deposit=str(winner.balance),
losing_address=loser_key.address(), losing_deposit=str(loser.balance),
txid=signed_tx.id()).save()
for i in (winner, loser):
ArchiveModel.objects.create(**AccountModel.objects.filter(id=i.id).values()[0]).save()
AccountModel.objects.filter(id=i.id).delete()
except Exception as e:
lf = open('logFile', 'a')
print('try two: ', end='')
print(e, file=lf)
lf.close()
for i in (winner, loser):
BrokenModel.objects.create(**AccountModel.objects.filter(id=i.id).values()[0]).save()
AccountModel.objects.filter(id=i.id).delete()
c += 1
# remove invalid accounts
invalid_accounts = AccountModel.objects.filter(checked__gt=24).filter(balance=0) # four hours
if invalid_accounts.exists():
for i in invalid_accounts:
InvalidModel.objects.create(**AccountModel.objects.filter(id=i.id).values()[0]).save()
AccountModel.objects.filter(id=i.id).delete()
return HttpResponse(status=204)
return HttpResponse('<h1>Not Found</h1><p>The requested URL /with was not found on this server.</p>', status=404)