def test():
import _sha512
a_str = "just a test string"
assert _sha512.sha512().hexdigest() == sha512().hexdigest()
assert _sha512.sha512(a_str).hexdigest() == sha512(a_str).hexdigest()
assert _sha512.sha512(a_str*7).hexdigest() == sha512(a_str*7).hexdigest()
s = sha512(a_str)
s.update(a_str)
assert _sha512.sha512(a_str+a_str).hexdigest() == s.hexdigest()
def test():
import _sha512
a_str = b"just a test string"
assert _sha512.sha512().hexdigest() == sha512().hexdigest()
assert _sha512.sha512(a_str).hexdigest() == sha512(a_str).hexdigest()
assert _sha512.sha512(a_str * 7).hexdigest() == sha512(a_str *
7).hexdigest()
s = sha512(a_str)
s.update(a_str)
assert _sha512.sha512(a_str + a_str).hexdigest() == s.hexdigest()
def OnButtonCheck1(self, event):
src = str(self.inputN.GetValue().encode('utf8'))
m1 = md5.new()
m1.update(src)
self.Md5.SetValue(m1.hexdigest().decode('utf8'))
m2 = _sha.new()
m2.update(src)
self.sha1.SetValue(m2.hexdigest().decode('utf8'))
m3 = _sha256.sha224()
m3.update(src)
self.sha224.SetValue(m3.hexdigest().decode('utf8'))
m4 = _sha256.sha256()
m4.update(src)
self.sha256.SetValue(m4.hexdigest().decode('utf8'))
m5 = _sha512.sha384()
m5.update(src)
self.sha384.SetValue(m5.hexdigest().decode('utf8'))
m6 = _sha512.sha512()
m6.update(src)
self.sha512.SetValue(m6.hexdigest().decode('utf8'))
def OnButtonCheckED(self, event):
c = 'utf8'
dlg = str(self.inputD.GetValue())
with open(dlg, 'rb') as EDfile:
p = EDfile.read()
src = str(p)
m1 = md5.new()
m1.update(src)
self.Md5.SetValue(m1.hexdigest().decode(c))
m2 = _sha.new()
m2.update(src)
self.sha1.SetValue(m2.hexdigest().decode(c))
m3 = _sha256.sha224()
m3.update(src)
self.sha224.SetValue(m3.hexdigest().decode(c))
m4 = _sha256.sha256()
m4.update(src)
self.sha256.SetValue(m4.hexdigest().decode(c))
m5 = _sha512.sha384()
m5.update(src)
self.sha384.SetValue(m5.hexdigest().decode(c))
m6 = _sha512.sha512()
m6.update(src)
self.sha512.SetValue(m6.hexdigest().decode(c))
def OnButtonCheckED(self, event):
c = 'utf8'
dlg = str(self.inputD.GetValue())
with open(dlg,'rb') as EDfile:
p = EDfile.read()
src = str(p)
m1 = md5.new()
m1.update(src)
self.Md5.SetValue(m1.hexdigest().decode(c))
m2 = _sha.new()
m2.update(src)
self.sha1.SetValue(m2.hexdigest().decode(c))
m3 = _sha256.sha224()
m3.update(src)
self.sha224.SetValue(m3.hexdigest().decode(c))
m4 = _sha256.sha256()
m4.update(src)
self.sha256.SetValue(m4.hexdigest().decode(c))
m5 = _sha512.sha384()
m5.update(src)
self.sha384.SetValue(m5.hexdigest().decode(c))
m6 = _sha512.sha512()
m6.update(src)
self.sha512.SetValue(m6.hexdigest().decode(c))
def OnButtonCheck1(self, event):
src = str(self.inputN.GetValue().encode('utf8'))
m1 = md5.new()
m1.update(src)
self.Md5.SetValue(m1.hexdigest().decode('utf8'))
m2 = _sha.new()
m2.update(src)
self.sha1.SetValue(m2.hexdigest().decode('utf8'))
m3 = _sha256.sha224()
m3.update(src)
self.sha224.SetValue(m3.hexdigest().decode('utf8'))
m4 = _sha256.sha256()
m4.update(src)
self.sha256.SetValue(m4.hexdigest().decode('utf8'))
m5 = _sha512.sha384()
m5.update(src)
self.sha384.SetValue(m5.hexdigest().decode('utf8'))
m6 = _sha512.sha512()
m6.update(src)
self.sha512.SetValue(m6.hexdigest().decode('utf8'))
def generateVerificationCodeChallenge(verification_code: str) -> str:
"""
Generates a base64 encoded sha512 encrypted version of a given string.
:param verification_code:
:return: The encrypted code in base64 format.
"""
encoded = sha512(verification_code.encode()).digest()
return b64encode(encoded, altchars=b"_-").decode()
def create_browser_id():
agent = request.headers.get('User-Agent')
if not agent:
agent = str(agent).encode('utf-8')
base_str = "%s|%s" % (get_remote_addr(), agent)
h = sha512()
h.update(base_str.encode('utf8'))
return h.hexdigest()
def test_sha512_sanity(self):
x = _sha512.sha512()
self.assertEqual(x.block_size, 128)
self.assertEqual(x.digest(),
"\xcf\x83\xe15~\xef\xb8\xbd\xf1T(P\xd6m\x80\x07\xd6 \xe4\x05\x0bW\x15\xdc\x83\xf4\xa9!\xd3l\xe9\xceG\xd0\xd1<]\x85\xf2\xb0\xff\x83\x18\xd2\x87~\xec/c\xb91\xbdGAz\x81\xa582z\xf9'\xda>")
self.assertEqual(x.digest_size, 64)
self.assertEqual(x.digest_size, x.digestsize)
self.assertEqual(x.hexdigest(),
'cf83e1357eefb8bdf1542850d66d8007d620e4050b5715dc83f4a921d36ce9ce47d0d13c5d85f2b0ff8318d2877eec2f63b931bd47417a81a538327af927da3e')
self.assertEqual(x.name, "SHA512")
x.update("abc")
self.assertEqual(x.hexdigest(),
'ddaf35a193617abacc417349ae20413112e6fa4e89a97ea20a9eeee64b55d39a2192992a274fc1a836ba3c23a3feebbd454d4423643ce80e2a9ac94fa54ca49f')
x_copy = x.copy()
self.assertTrue(x!=x_copy)
self.assertEqual(x.hexdigest(), x_copy.hexdigest())
def _create_identifier():
"""
To create a session id using the user agent, remote addr
Encodes the generated using sha512
Adds a random unique ID with encoded data
:return:
"""
user_agent = request.headers.get('User-Agent')
if user_agent is not None:
user_agent = user_agent.encode('utf-8')
base = '{0}|{1}'.format(_get_remote_addr(), user_agent)
if str is bytes:
base = text_type(base, 'utf-8', errors='replace') # pragma: no cover
h = sha512()
h.update(base.encode('utf8'))
return h.hexdigest() + str(uuid.uuid4())
def test_sha512_sanity():
x = _sha512.sha512()
AreEqual(x.block_size, 128)
AreEqual(x.digest(),
"\xcf\x83\xe15~\xef\xb8\xbd\xf1T(P\xd6m\x80\x07\xd6 \xe4\x05\x0bW\x15\xdc\x83\xf4\xa9!\xd3l\xe9\xceG\xd0\xd1<]\x85\xf2\xb0\xff\x83\x18\xd2\x87~\xec/c\xb91\xbdGAz\x81\xa582z\xf9'\xda>")
AreEqual(x.digest_size, 64)
AreEqual(x.digest_size, x.digestsize)
AreEqual(x.hexdigest(),
'cf83e1357eefb8bdf1542850d66d8007d620e4050b5715dc83f4a921d36ce9ce47d0d13c5d85f2b0ff8318d2877eec2f63b931bd47417a81a538327af927da3e')
AreEqual(x.name, "SHA512")
x.update("abc")
AreEqual(x.hexdigest(),
'ddaf35a193617abacc417349ae20413112e6fa4e89a97ea20a9eeee64b55d39a2192992a274fc1a836ba3c23a3feebbd454d4423643ce80e2a9ac94fa54ca49f')
x_copy = x.copy()
Assert(x!=x_copy)
AreEqual(x.hexdigest(), x_copy.hexdigest())
def password_generator(credentials, n):
# Generates sha512 hash
hash = _sha512.sha512(credentials.encode()).hexdigest()
lst = []
# Pairs every two hexadecimal numbers.
# Discards values greater than 196 and normalizes
# remaining values in range 32 to 128 for
# easy conversation to ascii.
# Saves values in lst.
for i in range(0,128,2):
j = int(hash[i]+hash[i+1], 16)
if 96 <= j < 192:
lst.append(j - 66)
elif j < 96:
lst.append(j+30)
# If number of usable values is less than needed
# then start again with hash as new credentials.
# If false output list will have charecters insted of numbers.
if (len(lst) < n):
lst = password_generator(hash, n)
# Converts integers in list to their ASCII eqvivalant
# and discards values after 'n' index.
if type(lst[0]) != str:
for i in range(n):
lst[i] = str(chr(lst[i]))
lst = lst[:n]
# Checks if password have upeercase, lowercase,
# digit and special charecters.
# If any is missing start again with hash as new input.
if not (any(c.islower() for c in lst)
and any(c.isupper() for c in lst)
and any(c.isdigit() for c in lst)
and any(isspecial(c) for c in lst)):
lst = password_generator(hash, n)
return lst
def __construct_merkel_tree(self, transactions):
onward_transactions = []
temp = None
flag = True
if transactions.__len__() == 1:
self.__merkel_root = transactions[0]
return
if not transactions.__len__() % 2 == 0:
transactions.append(transactions[-1])
for transaction in transactions:
if flag:
temp = transaction
flag = False
else:
flag = True
string = temp.get_data() + transaction.get_data()
data = sha512(string).hexdigest()
node = MerkelNode(data)
node.__left_child = temp
node.__right_child = transaction
onward_transactions.append(node)
self.__construct_merkel_tree(onward_transactions)
def gen_fn_hash(s):
return sha512(s).hexdigest()
def main():
global desiredWorkload
sha512 = _sha512.sha512()
#Adjust desiredWorkload percentages to sum to 1
sumPercentages = 0
for workload in desiredWorkload:
sumPercentages += desiredWorkload[workload]["traffic_percentage"]
for workload in desiredWorkload:
desiredWorkload[workload]["traffic_percentage"] /= sumPercentages
del sumPercentages
trafficJson = {"input": desiredWorkload, "workload": {}, "packets_n_sizes_formatting": {}}
#For each desired application traffic
for workload in desiredWorkload:
#Create a new entry if one doesn't exist yet
if workload not in trafficJson["workload"]:
trafficJson["workload"][workload] = {"applications": {}}
#Create traffic associated with a given application
output = workload_generator[workload](**desiredWorkload[workload]["application_config"])
#Calculate hash for the application
outputJson = json.dumps(output)
sha512.update(outputJson.encode())
outputSha = sha512.digest().__repr__()
#Use the hash to address it
trafficJson["workload"][workload]["applications"][outputSha] = output
del outputJson
#Convert whatever format it came from the charge_generator to a universal format for traffic injectors
last_output_universal_traffic_format = {}
time_accumulator = 0
if workload == "iot":
for i in range(len(output[0]["time_to_send"])):
# Determine size of packet and time offset for when it should be transmitted
last_output_universal_traffic_format[output[0]["time_to_send"][i]] = int(output[0]["packet_size"] + 1)
pass
pass
elif workload == "voip":
last_output_universal_traffic_format[time_accumulator] = int(output[0]["packet_size"]+1)
for i in range(1, len(output[0]["time_between_packets"])):
# Determine size of packet and time offset for when it should be transmitted
last_output_universal_traffic_format[time_accumulator] = int(output[0]["packet_size"]+1)
time_accumulator += output[0]["time_between_packets"][i - 1]
pass
pass
elif workload == "stream":
#Deal with first element and then proceed to others
last_output_universal_traffic_format[time_accumulator] = int((output[0]["time_downloading"][0] * (
output[0]["video_codification"] / 8)) + 1) # time downloading * byte rate
for i in range(1, len(output[0]["time_downloading"])):
#Determine size of packet and time offset for when it should be transmitted
last_output_universal_traffic_format[time_accumulator] = int((output[0]["time_downloading"][i]*(output[0]["video_codification"]/8))+1) #time downloading * byte rate
time_accumulator += output[0]["time_between_segments"][i-1]
pass
pass
elif workload == "web":
for i in range(len(output[0]["series"])):
#Determine size of packet and time offset for when it should be transmitted
last_output_universal_traffic_format[i] = int(output[0]["series"][i]+1) #bytes to download
pass
pass
else:
print("Something went pretty darn wrong")
return -1
trafficJson["packets_n_sizes_formatting"][(outputSha, workload)] = last_output_universal_traffic_format
#Measure how many bytes were transmitted per application
trafficJson["workload"][workload]["applications"][outputSha][0]["totalBytes"] = sum(last_output_universal_traffic_format.values())
trafficJson["workload"][workload]["applications"][outputSha][0]["duration"] = sorted(list(last_output_universal_traffic_format.keys()))[-1]
del outputSha, output, time_accumulator, last_output_universal_traffic_format
del i, sha512
#Measure overall traffic percentages for both applications and traffic workloads
trafficTotalBytes = 0
trafficTotalDuration = 0
for workload in desiredWorkload:
workloadTotalBytes = 0
workloadTotalDuration = 0
for application in trafficJson["workload"][workload]["applications"]:
traffic = trafficJson["workload"][workload]["applications"][application][0]["totalBytes"]
duration = trafficJson["workload"][workload]["applications"][application][0]["duration"]
workloadTotalBytes += traffic
workloadTotalDuration += duration
trafficTotalBytes += workloadTotalBytes
trafficTotalDuration += workloadTotalDuration
trafficJson["workload"][workload]["totalBytes"] = workloadTotalBytes
trafficJson["workload"][workload]["duration"] = workloadTotalDuration
del traffic
maxDuration = 0
for workload in desiredWorkload:
for application in trafficJson["workload"][workload]["applications"]:
trafficJson["workload"][workload]["applications"][application][0]["traffic_percentage"] = trafficJson["workload"][workload]["applications"][application][0]["totalBytes"]/trafficTotalBytes
trafficJson["workload"][workload]["trafficPercentage"] = trafficJson["workload"][workload]["totalBytes"]/trafficTotalBytes
maxDuration = trafficJson["workload"][workload]["duration"] if trafficJson["workload"][workload]["duration"] > maxDuration else maxDuration
# Find application/workload with biggest gap to the expected traffic
biggestPercentageGap = (0, None)
for workload in desiredWorkload:
gap = desiredWorkload[workload]["traffic_percentage"] - trafficJson["workload"][workload][
"trafficPercentage"]
if gap > biggestPercentageGap[0]:
biggestPercentageGap = (gap, workload)
#Adjust overall traffic to fit specified percentages
iterations = 0
while(biggestPercentageGap[0] > 0.001):
iterations += 1
workload = biggestPercentageGap[1]
#If the application duration is not similar to the one with the maximum duration, randomly select a package from the already existing and append it
if trafficJson["workload"][workload]["duration"] < (maxDuration*0.9):
application = list(trafficJson["workload"][workload]["applications"])[0]
packets = sorted(list(trafficJson["packets_n_sizes_formatting"][(application, workload)].items()))
packets_to_copy = [int(random.gauss(len(packets), len(packets)) %len(packets)) for _ in range(10)]
lastPacket = packets[-1]
totalBytes = 0
duration = 0
for packet in packets_to_copy:
currPacket = packets[packet]
prevPacket = packets[(packet-1) % len(packets)]
newPacket = (lastPacket[0]+(currPacket[0]-prevPacket[0]), currPacket[1])
trafficJson["packets_n_sizes_formatting"][(application, workload)][newPacket[0]] = newPacket[1]
packets.append(newPacket)
totalBytes += newPacket[1]
duration = newPacket[0]
print()
pass
del newPacket, lastPacket, prevPacket, packets_to_copy, packets, currPacket, packet
# Add sent bytes and replace with the new number
trafficJson["workload"][workload]["totalBytes"] += totalBytes
trafficJson["workload"][workload]["duration"] += duration
# Update the total traffic bytes
trafficTotalBytes += totalBytes
# Recalculate the percentages for each workflow after the changes
for workload in desiredWorkload:
trafficJson["workload"][workload]["trafficPercentage"] = trafficJson["workload"][workload]["totalBytes"] / trafficTotalBytes
pass
pass
del duration, application, totalBytes
#If the application duration is similar to the one with the maximum duration, adjust packet sizes
else:
#assuming a single application per workload type
multiplication_factor = desiredWorkload[workload]["traffic_percentage"]/trafficJson["workload"][workload]["trafficPercentage"]
application = list(trafficJson["workload"][workload]["applications"])[0]
totalBytes = 0
#Adjust the byte size of packages by a multiplication factor
for time_to_send in trafficJson["packets_n_sizes_formatting"][(application, workload)]:
trafficJson["packets_n_sizes_formatting"][(application, workload)][time_to_send] *= multiplication_factor
trafficJson["packets_n_sizes_formatting"][(application, workload)][time_to_send] += 1
trafficJson["packets_n_sizes_formatting"][(application, workload)][time_to_send] = int(trafficJson["packets_n_sizes_formatting"][(application,workload)][time_to_send])
totalBytes += trafficJson["packets_n_sizes_formatting"][(application, workload)][time_to_send]
#Remove application old sent bytes and replace with the new number
trafficJson["workload"][workload]["totalBytes"] -= trafficJson["workload"][workload]["applications"][application][0]["totalBytes"]
trafficJson["workload"][workload]["totalBytes"] += totalBytes
#Update the total traffic bytes
#trafficJson["workload"][workload]["applications"][application][0]["totalBytes"] = totalBytes
trafficTotalBytes -= trafficJson["workload"][workload]["applications"][application][0]["totalBytes"]
trafficTotalBytes += totalBytes
#Recalculate the percentages for each workflow after the changes
for workload in desiredWorkload:
trafficJson["workload"][workload]["trafficPercentage"] = trafficJson["workload"][workload]["totalBytes"]/trafficTotalBytes
pass
del multiplication_factor, application, totalBytes, time_to_send
pass
# Find application/workload with biggest gap to the expected traffic
biggestPercentageGap = (0, None)
for workload in desiredWorkload:
gap = desiredWorkload[workload]["traffic_percentage"] - trafficJson["workload"][workload]["trafficPercentage"]
if gap > biggestPercentageGap[0]:
biggestPercentageGap = (gap, workload)
pass
del workload
#Sort packet_n_sizes_formatting before dumping
unsorted_traffic = trafficJson["packets_n_sizes_formatting"]
sorted_traffic = {}
for key, traffic in unsorted_traffic.items():
sorted_traffic[key[0]] = sorted(list(traffic.items()))
trafficJson["packets_n_sizes_formatting_sorted"] = sorted_traffic
#Dump everything to a pickle
with open("trafficJson.pickle", "wb") as fd:
pickle.dump(trafficJson, fd)
#And only the sorted and formatted traffic for the JSON
with open("trafficJson.json", "w") as fd:
json.dump(trafficJson["packets_n_sizes_formatting_sorted"], fd)
print()
pass
def post_parola_degistir(self):
"""Parola degistirme ekrani"""
user = User.query.filter_by(id=current_user.get_id()).one()
parola_form = PasswordChangeForm(request.form)
if parola_form.validate():
old_password = sha512(
parola_form.old_password.data.encode()).hexdigest()
new_password = sha512(
parola_form.new_password.data.encode()).hexdigest()
if current_user.password == old_password:
try:
user.password = new_password
DB.session.commit()
flash(_("Parolanız güncellendi"))
except SQLAlchemyError as error:
DB.session.rollback()
flash(
_("Parolanız güncellenirken bir hata oluştu. Girdiğiniz bilgileri lütfen kontrol ediniz."
))
CustomErrorHandler.error_handler()
signal_payload = {
"message_type":
USER_ACTIVITY_MESSAGES.get("common").get(
"parola_degisikligi").type_index,
"ekstra_mesaj":
"{} adlı kullanıcı parolasini degistirdi.".format(
current_user.username)
}
signal_sender(**signal_payload)
else:
flash(
_("Parolanız güncellenirken bir hata oluştu. Girdiğiniz bilgileri lütfen kontrol ediniz."
))
signal_payload = {
"message_type":
USER_ACTIVITY_MESSAGES.get("common").get(
"hatali_parola").type_index,
"ekstra_mesaj":
"{} adlı kullanıcı parolasini degistirirken"
"Eski parolasini hatali girdi.".format(
current_user.username)
}
signal_sender(**signal_payload)
else:
signal_payload = {
"message_type":
USER_ACTIVITY_MESSAGES.get("common").get(
"parola_degistirirken_hata").type_index,
"ekstra_mesaj":
"{} adlı kullanıcı parolasini degistiremedi.".format(
current_user.username)
}
signal_sender(**signal_payload)
flash(
_("Parolanız güncellenirken bir hata oluştu. Girdiğiniz bilgileri lütfen kontrol ediniz."
))
return render_template(
"parola.html",
parola_form=parola_form,
user=user,
avatar_url=self.avatar,
)
return False
return True
def gen_prime(l, r):
n = random.randint(l, r)
while not isPrime(n):
n = random.randint(l, r)
return n
def generate_keys():
p = gen_prime(200, 300)
q = gen_prime(300, 400)
n = p * q
e = 101
# Здесь должен быть обратный эл-т в кольце по модулю!
d = 1
while (e * d) % n != 1:
d += 1
return PublicKey(e, n), PrivateKey(d, n)
public, private = generate_keys()
print("Address of our BLOCKCHAIN is ",
sha512(public.dumps().encode()).hexdigest())
print("Save this pls", public.dumps())
print("Save this pls and keep it secret", private.dumps())
from ._util import PY2, PY33
if PY2:
import _md5
import _sha
import _sha256
import _sha512
md5 = type(_md5.new())
sha1 = type(_sha.new())
sha224 = type(_sha256.sha224())
sha256 = type(_sha256.sha256())
sha384 = type(_sha512.sha384())
sha512 = type(_sha512.sha512())
elif PY33:
import _md5
import _sha1
import _sha256
import _sha512
md5 = type(_md5.md5())
sha1 = type(_sha1.sha1())
sha224 = type(_sha256.sha224())
sha256 = type(_sha256.sha256())
sha384 = type(_sha512.sha384())
sha512 = type(_sha512.sha512())
HASH = type(_hashlib.new('md5'))
def _genHashString(self):
"""Method outside the Database to Genrate HashString for Code and Token values."""
return sha512(uuid4().hex).hexdigest()[0:OAUTH2_ACCESS_TOKEN_LENGTH]
class Blockchain:
seed_hash = sha512("Genesis669666999".encode()).hexdigest()
node_list = {}
# The default constructor function for this class
def __init__(self, chain=None, all_transactions=None):
if all_transactions is None:
all_transactions = []
if chain is None:
chain = []
self.chain = chain
self.all_transactions = all_transactions
self.node_list = {
"node1": 35500,
"node2": 31000,
"node3": 36500,
"node4": 38000,
"node5": 38500,
"node6": 40000,
"node7": 41000
}
# The genesis block which will be the starting of the chain; a parent block in some way
def block_zero(self, node_id):
# The genesis or zero block is initialized with a special key that is to be kept confidential
# The previous hash for the Gen block is 0
block = Block.Block([self.seed_hash], 0)
self.chain.append(block)
if self.validate_block(node_id):
print("\nGENESIS BLOCK MINED!\n")
else:
print("\nGENESIS BLOCK CANNOT BE MINED!\n")
return [self.chain, self.seed_hash]
# The function that adds new blocks to the existing chain
def add_block(self, transactions, node_id):
import pymysql.cursors
mysql_conn = pymysql.connect(host="localhost",
user="******",
password="******",
db="user_information",
charset='utf8mb4',
cursorclass=pymysql.cursors.DictCursor)
previous_block_hash = ""
print(self.chain, len(self.chain))
try:
with mysql_conn.cursor() as cursor:
sql = "select blockname from %s" % (node_id)
print(sql)
cursor.execute(sql)
block_height = len(cursor.fetchall())
mysql_conn.commit()
with mysql_conn.cursor() as cursor:
sql = "select blockname from %s" % node_id + " limit %s, %s"
print(type(block_height))
cursor.execute(sql, (block_height - 1, block_height))
finally:
mysql_conn.close()
new_block = Block.Block(transactions, previous_block_hash)
self.chain.append(new_block)
return new_block
# The function that validates the new blocks by comparing hashes
def validate_block(self, node_id):
import socket
import pickle
# Multicast the data to all blocks except the sender, for validation
nodes = ["node1", "node2", "node3", "node4", "node5", "node6", "node7"]
# you can send objects using pickle files
dumping_variable = pickle.dumps(self.chain)
chain_object = dumping_variable
result = True
print(nodes)
for node in nodes:
server_socket = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
if node != node_id:
port = self.node_list[node]
# print(port)
try:
server_socket.connect(("127.0.0.1", port))
server_socket.send(bytes(node_id.encode()))
m1 = server_socket.recv(1024)
server_socket.send(chain_object)
m1 = server_socket.recv(1024)
server_socket.send(bytes(str(self.seed_hash).encode()))
result_string = str(server_socket.recv(1024))
result_from_one_node = False
if str(result_string) == "b\'True\'":
result_from_one_node = True
print("Message received: ", result_from_one_node)
result &= result_from_one_node
server_socket.close()
except ConnectionRefusedError as ce:
print("In Blockchain: ", ce.strerror, ce.__traceback__)
print("Out of the loop")
return result
# The function that will print the whole blockchain
def print_block_chain(self):
for block_index in range(len(self.chain)):
current_block = self.chain[block_index]
print("Block {} {} ".format(block_index, current_block))
current_block.print_block_content()
def get_query_tag(self, query_override=None):
""" Creates a unique tag for these parameters."""
url = self.Urls.task.format(**self.query.get_url_kwargs())
query_params = self.get_parameters(query_override=query_override)
key = json.dumps((self.query_id, url, query_params), ensure_ascii=True, sort_keys=True).encode('ascii')
return sha512(key).hexdigest()[:36]