def test_encrypt(self):
msg = b'My private message'
pw = b'my private key'
pk = str(seccure.passphrase_to_pubkey(pw))
self.assertEqual(seccure.decrypt(seccure.encrypt(msg, pk), pw), msg)
for c in seccure.curves:
self.assertEqual(
seccure.decrypt(
seccure.encrypt(
msg,
str(seccure.passphrase_to_pubkey(pw, curve=c)),
curve=c),
pw, curve=c),
msg)
def test_encrypt(self):
msg = b'My private message'
pw = b'my private key'
pk = str(seccure.passphrase_to_pubkey(pw))
self.assertEqual(seccure.decrypt(seccure.encrypt(msg, pk), pw), msg)
for c in seccure.curves:
self.assertEqual(
seccure.decrypt(
seccure.encrypt(
msg,
str(seccure.passphrase_to_pubkey(pw, curve=c)),
curve=c),
pw, curve=c),
msg)
def asym_encrypt(plaintext, public_key):
''' encryption with ECIES '''
if isinstance(plaintext, list):
plaintext = ''.join(map(str, plaintext))
ciphertext = seccure.encrypt(plaintext, public_key)
encoded_ciphertext = b64encode(ciphertext)
return encoded_ciphertext
def test_encrypt(self):
msg = b'My private message'
pw = b'my private key'
self.assertEqual(
seccure.decrypt(
seccure.encrypt(msg, str(seccure.passphrase_to_pubkey(pw))),
b'my private key'), msg)
def encrypt(self, message, public_key):
"""Encrypts the given message with the provided public key.
@param message The message to encrypt.
@param public_key The public key to use.
@return An encrypted version of @message.
"""
assert type(message) is bytes
cipher = seccure.encrypt(message, public_key, mac_bytes=self.mac)
self.logger.debug("Encrypted " + str(len(message)) + " bytes to '" + public_key.decode("utf-8") + "'")
return cipher
def main(argv):
if len(argv) != 4:
print 'usage: ./icmpTest.py <OD2 IP Address> <OD1 IP Address> <TimeoutInSeconds> <src_port>'
exit(1)
# print argv
timestamp = int(time.time())
## Encrypt someString with controller's public key
pubkey = b'8W;>i^H0qi|J&$coR5MFpR*Vn' ## = str(seccure.passphrase_to_pubkey(b'my private key'))
# if(int(argv[1])<10):
# argv[1] = 'Siegebreak000'+argv[1]
# elif(int(argv[1])<100):
# argv[1] = 'Siegebreak00'+ argv[1]
# elif(int(argv[1])<1000):
# argv[1] = 'Siegebreak0'+argv[1]
# elif(int(argv[1])<10000):
# argv[1] = 'Siegebreak' + argv[1]
# else:
# print "Timeout value not permitted; Try again with timeout<10000"
# exit(0)
# argv[1]=argv[1]+'@'+str(timestamp)
# print argv[1]
# encryptedString = seccure.encrypt(argv[1], pubkey)
if (int(argv[2]) < 10):
argv[2] = 'Siege000' + argv[2]
elif (int(argv[2]) < 100):
argv[2] = 'Siege00' + argv[2]
elif (int(argv[2]) < 1000):
argv[2] = 'Siege0' + argv[2]
elif (int(argv[2]) < 10000):
argv[2] = 'Siege' + argv[2]
else:
print "Timeout value not permitted; Try again with timeout<10000"
exit(0)
padding = (15 - len(argv[1]))
argv[2] = argv[2] + '@' + argv[1] + '#' + argv[3] + '$'
# print argv[2]
# print argv[2]
encryptedString = seccure.encrypt(argv[2], pubkey)
# print len(encryptedString)
iter = randint(1, 3)
iter = 1
# print iter
sendPing(argv[0], str(encryptedString), iter)
def on_click_send(self):
self.conn = sqlite3.connect('BankDB.db')
self.c = self.conn.cursor()
self.date = datetime.datetime.now()
self.id = s.encrypt(
self.hashTransaction(self.date.time(), self.accID).encode(),
str(s.passphrase_to_pubkey(b'my private key')))
self.amt = s.encrypt(self.Amount.text().encode(),
str(s.passphrase_to_pubkey(b'my private key')))
print("Transaction ID : " + str(self.id))
print("\nAmount sent : " + str(self.amt))
self.c.execute('INSERT INTO SAMPE VALUES(?, ?, ?, ?, ?, ?, ?);',
[(self.accID), (self.accID),
(self.ReceiversID.text()), self.amt,
(str(self.date.time())),
(str(self.date.date())), self.id])
print("\nSuccessfully Transferred")
# self.fetchdata = self.c.execute('SELECT NETBALANCE FROM USERS where ACCOUNT_ID = ?', [(self.accID)])
# for i in self.fetchdata:
# self.intbalnow = i[0]
# self.c.execute('UPDATE USERS SET NETBALANCE = ? WHERE ACCOUNT_ID =?',[(self.intbalnow - int(self.Amount.text())), (self.accID)])
self.conn.commit()
self.close()
def encrypt(self, data, filename='no_name.file'):
struct = self.make_eccpgp_structure()
struct['header']['filename'] = filename
struct['header']['hash'] = sha1(data).hexdigest()
sc = SymCiph()
self._skey = sc.create_key()
self._iv = sc.create_iv()
struct['header']['key'] = b64enc(self._skey)
struct['header']['iv'] = b64enc(self._iv)
crypto = sc.create_crypto(self._skey, self._iv)
struct['payload'] = b64enc(sc.encrypt(crypto, data))
header = json.dumps(struct['header'])
enc_header = seccure.encrypt(header.encode(),self._epub)
struct['header'] = b64enc(enc_header)
return struct
def encrypt(self, data, filename='no_name.file'):
struct = self.make_eccpgp_structure()
struct['header']['filename'] = filename
struct['header']['hash'] = sha1(data).hexdigest()
sc = SymCiph()
self._skey = sc.create_key()
self._iv = sc.create_iv()
struct['header']['key'] = b64enc(self._skey)
struct['header']['iv'] = b64enc(self._iv)
crypto = sc.create_crypto(self._skey, self._iv)
struct['payload'] = b64enc(sc.encrypt(crypto, data))
header = json.dumps(struct['header'])
enc_header = seccure.encrypt(header.encode(), self._epub)
struct['header'] = b64enc(enc_header)
return struct
def on_click_submit(self):
self.conn = sqlite3.connect("BankDB.db")
self.c = self.conn.cursor()
self.h = hashlib.sha512()
self.h.update(self.PasswordField.text().encode())
self.hash = self.h.digest()
print("The message digest : " + str(self.hash))
print("The message digest size : " + str(self.h.digest_size))
self.publicKey = str(s.passphrase_to_pubkey(b'my private key'))
self.date = datetime.datetime.now()
self.c.execute(
"INSERT INTO USERS(NAME, USERNAME, PASSWORD, ACCOUNT_ID, PubKey) VALUES(?, ?, ?, ?, ?);",
[(self.NameField.text()), (self.User_NameField.text()),
(self.hash), (self.Account_NumberField.text()), (self.publicKey)])
self.c.execute(
"INSERT INTO SAMPE VALUES(00001, 00001, ?, ?, ?, ?, ?);",
[(self.Account_NumberField.text()),
(s.encrypt(self.NetBalance.text().encode(), self.publicKey)),
(str(self.date.time())), (str(self.date.date())),
self.hash_Transaction(self.date.time(),
self.Account_NumberField.text())])
self.conn.commit()
self.conn.close()
self.close()
def cipherText(texto):
#print ('escriba texto a cifrar')
#simpleText= input()
cipher_Text = seccure.encrypt(texto.encode(),str(generatePublicKey()).encode())
# print(cipher_Text)
return cipher_Text
def test_encrypt(self):
msg = b'My private message'
pw = b'my private key'
self.assertEqual(seccure.decrypt(seccure.encrypt(msg,
str(seccure.passphrase_to_pubkey(pw))),
b'my private key'), msg)
for y in range(7):
r.append(random.choice(enc_list))
enc_list.remove(r[y])
packet[y] = packet[y] + r[y]
#print packet[y]
#private_key = '101010101101111100010110011101010'
private_key = random.choice(string.digits)
#print private_key
public_key = str(seccure.passphrase_to_pubkey(private_key))
ciphertext = []
decrypted = []
###Encryption phase
for z in range(7):
ciphertext.append(seccure.encrypt(packet[z][:-3], public_key))
#print ciphertext[z]
t2 = time.time()
###Decryption phase
#For benchmarking and an easier to understand algorithm we are not fetching data from the different cloud sources and combining it as our purpose here is to test the speed of this proposed encryption algorithm against RSA
#Ideally, this would go something like this -
#RECEIVE packet data from CLOUD 1
#RECEIVE packet data from CLOUD 2
#RECEIVE packet data from CLOUD 3
#RECEIVE packet data from CLOUD 4
#RECEIVE packet data from CLOUD 5
#RECEIVE packet data from CLOUD 6
#RECEIVE packet data from CLOUD 7
#RECEIVE packet data from CLOUD 8
#Combine packets and store in the list cyphertext in the order that they appeared
def test_ec_crypto():
q,p = seccure.generate_keypair()
c = seccure.encrypt(b'ABC' , p)
print seccure.decrypt(c , q)
def mooltipassMiniInit(mooltipass_device):
# Check for public key
if not os.path.isfile("publickey.bin"):
print "Couldn't find public key!"
return
# Check for export folder
if not os.path.isdir("export"):
print "Couldn't find export folder"
return
# Check for update bundle
if not os.path.isfile("updatefile.img"):
print "Couldn't find udpate file!"
return
# Read public key
public_key = pickle_read("publickey.bin")
# Loop
try:
temp_bool = 0
while temp_bool == 0:
# Operation success state
success_status = True
# Empty set password packet
mooltipass_password = array('B')
# We need 62 random bytes to set them as a password for the Mooltipass
sys.stdout.write('Step 1... ')
sys.stdout.flush()
#print "Getting first random half"
mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
data = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
mooltipass_password.extend(data[DATA_INDEX:DATA_INDEX+32])
#print "Getting second random half"
mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
data2 = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
mooltipass_password.extend(data2[DATA_INDEX:DATA_INDEX+30])
#print "Getting random number for UID & request key"
request_key_and_uid = array('B')
mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
request_key_and_uid.extend(mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()[DATA_INDEX:DATA_INDEX+24])
# Check that we actually received data
if data == None or data2 == None:
success_status = False
print "fail!!!"
print "likely causes: defective crystal or power supply"
# Send our bundle
if success_status == True:
sys.stdout.write('Step 2... ')
sys.stdout.flush()
# Upload bundle, password is not used in that context
success_status = mooltipass_device.uploadBundle("0000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000", "updatefile.img", False)
# For the mini version this procedure doesn't check the last return packet because in normal mode the device reboots
if success_status == True:
if mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()[DATA_INDEX] == 0x01:
success_status = True
else:
success_status = False
print "last packet fail!!!"
print "likely causes: problem with external flash"
else:
success_status = False
print "fail!!!"
print "likely causes: problem with external flash"
# Inform the Mooltipass that the bundle is sent so it can start functional test
if success_status == True:
sys.stdout.write('Step 3... ')
sys.stdout.flush()
magic_key = array('B')
magic_key.append(0)
magic_key.append(187)
mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
if mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX] == 0x01:
success_status = True
print ""
else:
success_status = False
print "fail!!!"
print "likely causes: none"
# Mooltipass Mini doesn't have LEDs anymore
#if success_status == True:
# # Force tester to look at the LEDs
# raw_input("Press enter if LED1 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(149)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# raw_input("Press enter if LED2 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(150)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# raw_input("Press enter if LED3 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(151)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# raw_input("Press enter if LED4 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(152)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# Wait for the mooltipass to inform the script that the test was successfull
if success_status == True:
temp_bool2 = False
sys.stdout.write('Please follow the instructions on the mooltipass screen...')
sys.stdout.flush()
while temp_bool2 != True:
test_result = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
if test_result == None:
sys.stdout.write('.')
sys.stdout.flush()
else:
if test_result[CMD_INDEX] == CMD_FUNCTIONAL_TEST_RES and test_result[DATA_INDEX] == 0:
success_status = True
print " ok!"
else:
success_status = False
print " fail!!!"
print "Please look at the screen to know the cause"
temp_bool2 = True
# Send set password packet
if success_status == True:
sys.stdout.write('Step 4... ')
sys.stdout.flush()
# TO REMOVE
#request_key_and_uid = [0]*24
mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_UID, 24, request_key_and_uid))
if mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX] == 0x01:
# Update Success status
success_status = True
else:
success_status = False
print "fail!!!"
print "likely causes: mooltipass already setup"
# Send set password packet
if success_status == True:
sys.stdout.write('Step 5...\r\n')
sys.stdout.flush()
# TO REMOVE
#mooltipass_password = [0]*62
mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_BOOTLOADER_PWD, 62, mooltipass_password))
#print mooltipass_password
if mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX] == 0x01:
# Set password success, ask mooltipass id
mp_id = None
while mp_id == None:
try :
mp_id = int(raw_input("Enter Mooltipass ID: MPM-"))
except ValueError :
mp_id = None
print "Wrong entered value, please try again"
# Write in file: Mooltipass ID | aes key 1 | aes key 2 | request ID key | UID, flush write
aes_key1 = "".join(format(x, "02x") for x in mooltipass_password[:32])
aes_key2 = "".join(format(x, "02x") for x in mooltipass_password[32:]) + "".join(format(x, "02x") for x in request_key_and_uid[22:])
request_uid_key = "".join(format(x, "02x") for x in request_key_and_uid[0:16])
uid = "".join(format(x, "02x") for x in request_key_and_uid[16:22])
string_export = str(mp_id)+"|"+ aes_key1 +"|"+ aes_key2 +"|"+ request_uid_key +"|"+ uid +"\r\n"
#print string_export
pickle_write(seccure.encrypt(string_export, public_key, curve='secp521r1/nistp521'), time.strftime("export/%Y-%m-%d-%H-%M-%S-Mooltipass-")+str(mp_id)+".txt")
# Update Success status
success_status = True
else:
success_status = False
print "fail!!!"
print "likely causes: mooltipass already setup"
if success_status == True:
# Let the user know it is done
print "Setting up Mooltipass MPM-"+str(mp_id).zfill(4)+" DONE"
# Increment Mooltipass ID
mp_id = mp_id + 1
else:
print "|!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!|"
print "|---------------------------------------------------------|"
print "|---------------------------------------------------------|"
print "|Setting up Mooltipass MPM-"+"XXXX"+" FAILED |"
print "| |"
print "| PLEASE PUT AWAY THIS MOOLTIPASS!!!! |"
print "|---------------------------------------------------------|"
print "|---------------------------------------------------------|"
print "|!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!|"
# Disconnect this device
print "\r\nPlease disconnect this Mooltipass"
# Wait for no answer to ping
temp_bool2 = 0
while temp_bool2 == 0:
try :
# Send ping packet
mooltipass_device.pingMooltipass()
except usb.core.USBError as e:
#print e
temp_bool2 = 1
time.sleep(.5)
# Connect another device
print "Connect other Mooltipass"
# Wait for findHidDevice to return something
temp_bool2 = False;
while temp_bool2 == False:
temp_bool2 = mooltipass_device.connect(False)
time.sleep(.5)
# Delay
time.sleep(1)
# New Mooltipass detected
print "New Mooltipass detected"
print ""
except KeyboardInterrupt:
print "File written, everything ok"
def encrypt(message, key):
return seccure.encrypt(message, key)
def main():
print "Mooltipass Mass Programming Tool"
# Check for public key
if not os.path.isfile("publickey.bin"):
print "Couldn't find public key!"
return
# Check for firmware file presence
if not os.path.isfile("Mooltipass.hex"):
print "Couldn't find Mooltipass.hex"
sys.exit(0)
# Check for bootloader file presence
if not os.path.isfile("bootloader_mini.hex"):
print "Couldn't find bootloader_mini.hex"
sys.exit(0)
# Temp vars
prog_socket_states = [PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE]
programming_threads = [0, 0, 0, 0, 0, 0, 0, 0, 0]
next_available_mooltipass_id = 1
mooltipass_ids_pending = []
mooltipass_ids_to_take = []
global displayed_texts
temp_counter = 0
# Random bytes buffer
random_bytes_buffer = []
# HID device constructor
mooltipass_device = mooltipass_hid_device()
# Connect to device
if mooltipass_device.connect(True) == False:
sys.exit(0)
# Generate a blank firmware to see if we actually can generate it and then print the hash
return_gen = generateFlashAndEepromHex("Mooltipass.hex", "bootloader_mini.hex", 12345, [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0], "/tmp/test_flash.hex", "/tmp/test_eeprom.hex", True)
os.remove("/tmp/test_flash.hex")
os.remove("/tmp/test_eeprom.hex")
# Check the success status
if return_gen[0] == False:
print "Couldn't generate a template flash hex!"
sys.exit(0)
# Check for random numbers file presence
if os.path.isfile("rng.bin"):
try:
random_bytes_buffer = pickle_read("rng.bin")
except EOFError:
# This happens when the file is corrupted
random_bytes_buffer = []
os.remove("rng.bin")
# Set to true to export the random bytes
if False:
f = open('randombytes.bin', 'wb')
random_bytes_buffer.tofile(f)
f.flush()
f.close()
# Check for next mooltipass id file
if os.path.isfile("mooltipass_id.bin"):
next_available_mooltipass_id = pickle_read("mooltipass_id.bin")
# Check for available mooltipass ids file
if os.path.isfile("mooltipass_av_ids.bin"):
mooltipass_ids_to_take = pickle_read("mooltipass_av_ids.bin")
# Check for available mooltipass ids file
if os.path.isfile("mooltipass_pending_ids.bin"):
mooltipass_ids_pending = pickle_read("mooltipass_pending_ids.bin")
if len(mooltipass_ids_pending) > 0:
os.remove("mooltipass_pending_ids.bin")
mooltipass_ids_to_take.extend(mooltipass_ids_pending)
print "Adding previously pending ids:", mooltipass_ids_pending
# Remove possible duplicates
mooltipass_ids_to_take = list(set(mooltipass_ids_to_take))
print "Mooltipass IDs to take:", mooltipass_ids_to_take
pickle_write(mooltipass_ids_to_take, "mooltipass_av_ids.bin")
# Read public key
public_key = pickle_read("publickey.bin")
# Display text on screen
add_line_on_screen(mooltipass_device, "Python Script Started")
add_line_on_screen(mooltipass_device, return_gen[1][0:20])
add_line_on_screen(mooltipass_device, return_gen[1][20:])
# Main loop
while True:
time.sleep(.3)
temp_counter = temp_counter + 1
# Check if a button is pressed
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_BUTTON_PRESSED, 0, None))
received_data = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
for i in range(0,9):
if received_data[DATA_INDEX+i] != 0:
# Programming button was pressed on the bench
print "Button", i, "pressed"
prog_socket_states[i] = PROG_SOCKET_PENDING
# Get number of available random bytes
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_GET_RNG_B_AVAIL, 0, None))
nb_random_bytes_available = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()[DATA_INDEX]
# If more than 32 bytes, fetch them
if nb_random_bytes_available >= 32:
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
random_bytes = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()[DATA_INDEX:DATA_INDEX+32]
random_bytes_buffer.extend(random_bytes)
# Store random bytes buffer every now and then
if temp_counter % 30 == 0:
pickle_write(random_bytes_buffer, "rng.bin")
print "Random bytes buffer saved:", len(random_bytes_buffer), "bytes available"
#print random_bytes_buffer
# If we have enough random bytes and a button was pressed, program the MCU
for socket_id in range(0, 9):
if prog_socket_states[socket_id] == PROG_SOCKET_PENDING and len(random_bytes_buffer) >= AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH:
print "Starting programming for socket", socket_id
# Generate new mooltipass ID
if len(mooltipass_ids_to_take) > 0:
mooltipass_id = mooltipass_ids_to_take[0]
del(mooltipass_ids_to_take[0])
else:
# No ids to take, take the next available one
mooltipass_id = next_available_mooltipass_id
next_available_mooltipass_id = next_available_mooltipass_id + 1
# Store the new id in file
pickle_write(next_available_mooltipass_id, "mooltipass_id.bin")
# Generate keys from the random bytes buffer
aes_key1 = random_bytes_buffer[0:AES_KEY_LENGTH]
aes_key2 = random_bytes_buffer[AES_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH]
uid_key = random_bytes_buffer[AES_KEY_LENGTH+AES_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH]
uid = random_bytes_buffer[AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH]
del(random_bytes_buffer[0:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH])
# Write in file: Mooltipass ID | aes key 1 | aes key 2 | request ID key | UID, flush write
aes_key1_text = "".join(format(x, "02x") for x in aes_key1)
aes_key2_text = "".join(format(x, "02x") for x in aes_key2)
uid_key_text = "".join(format(x, "02x") for x in uid_key)
uid_text = "".join(format(x, "02x") for x in uid)
string_export = str(mooltipass_id)+"|"+ aes_key1_text +"|"+ aes_key2_text +"|"+ uid_key_text +"|"+ uid_text+"\r\n"
#print string_export
try:
pickle_file_name = time.strftime("export/%Y-%m-%d-%H-%M-%S-Mooltipass-")+str(mooltipass_id)+".txt"
pickle_write(seccure.encrypt(string_export, public_key, curve='secp521r1/nistp521'), pickle_file_name)
except NameError:
pickle_file_name = "test"
# Generate programming file
generateFlashAndEepromHex("Mooltipass.hex", "bootloader_mini.hex", mooltipass_id, aes_key1, aes_key2, uid_key, uid, "/tmp/flash_"+str(mooltipass_id)+".hex", "/tmp/eeprom_"+str(mooltipass_id)+".hex", False)
# Change state to programming
prog_socket_states[socket_id] = PROG_SOCKET_PROGRAMMING
# Display info on display
add_line_on_screen(mooltipass_device, "#"+str(socket_id)+": programming id "+str(mooltipass_id))
# Launch a programming thread
mooltipass_ids_pending.append(mooltipass_id)
pickle_write(mooltipass_ids_pending, "mooltipass_pending_ids.bin")
programming_threads[socket_id] = FuncThread(start_programming, socket_id, mooltipass_id, "/tmp/flash_"+str(mooltipass_id)+".hex", "/tmp/eeprom_"+str(mooltipass_id)+".hex", pickle_file_name)
programming_threads[socket_id].start()
# Check for thread end
for socket_id in range(0, 9):
# Check if we're currently programming
if prog_socket_states[socket_id] == PROG_SOCKET_PROGRAMMING:
# Check if the thread ended
if not programming_threads[socket_id].is_alive():
print "Thread for socket", socket_id, "ended"
# Fetch the return data
return_data = programming_threads[socket_id].join()
# Delete the temporary programming files
os.remove(return_data[2])
os.remove(return_data[3])
# Check success state
if return_data[0] :
print "Programming for socket", socket_id, "succeeded (mooltipass id:", str(return_data[1]) + ")"
# Save our mooltipass pool in case it was an id to take
pickle_write(mooltipass_ids_to_take, "mooltipass_av_ids.bin")
# Inform programming platform of success state
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_PROG_DONE, 1, [socket_id]))
mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
add_line_on_screen(mooltipass_device, "#"+str(socket_id)+": "+return_data[4])
else:
print "Programming for socket", socket_id, "failed (mooltipass id:", str(return_data[1]) + ")"
# Put the mooltipass id back in the pool
mooltipass_ids_to_take.append(return_data[1])
pickle_write(mooltipass_ids_to_take, "mooltipass_av_ids.bin")
# Delete encrypted keys file
os.remove(return_data[5])
# Inform programming platform of success state
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_PROG_FAILURE, 1, [socket_id]))
mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
add_line_on_screen(mooltipass_device, "#"+str(socket_id)+": "+return_data[4])
# Remove id from pending ones
mooltipass_ids_pending.remove(return_data[1])
pickle_write(mooltipass_ids_pending, "mooltipass_pending_ids.bin")
# Reset prog state
prog_socket_states[socket_id] = PROG_SOCKET_IDLE
def accepted(self):
self.conn = sqlite3.connect("Data.db")
self.c = self.conn.cursor()
# key = convertpass(self.passStringAdd)
# iv = Random.new().read(DES3.block_size)
# cipher_encrypt = DES3.new(key, DES3.MODE_OFB, iv)
# passwordpadded = convertToMUL8(self.Password.text())
private_key = self.passStringAdd
public_key = str(seccure.passphrase_to_pubkey(private_key.encode()))
self.c.execute("INSERT INTO PASSES VALUES(?, ?, ?, ?)", [(self.id), (self.Company.text()), (self.Username.text()), (seccure.encrypt(self.Password.text().encode(), public_key.encode()))])
print("A New Password FIELD ADDED.")
self.conn.commit()
self.accept()
for x in range(7):
packet.append(byteString[(x * N):((N * (x + 1)))])
#print packet[x]
# Step 2
for y in range(7):
#r.append(random.choice(enc_list))
packet[y] = packet[y] + enc_list[y]
#enc_list.remove(r[y])
#packet[y] = packet[y] + r[y]
#print packet[y]
private_key = '77' #random.choice(string.digits)
#print private_key
public_key = str(seccure.passphrase_to_pubkey(private_key))
ciphertext = []
###Encryption phase
for z in range(7):
t1 = time.time()
ct = seccure.encrypt(packet[z][:-3], public_key)
#print tt
ciphertext.append(ct)
t2 = time.time()
conv = {'ciphertext': ct, 'cloudNo': packet[z][-3:]}
s = json.dumps(conv, ensure_ascii=False)
res = requests.post("http://127.0.0.1:5000/determine_escalation/",
data=ct + packet[z][-3:]).json()
print res
encTime = encTime + (t2 - t1)
#print ciphertext[z]
print 'Encryption Time for the iteration', encTime
def encrypt(message, key):
public_key = Private.publickey(key) #HACK
return seccure.encrypt(message, public_key)
def raw_enc(self, data, pubkey=''):
return seccure.encrypt(data, pubkey)
def on_click_send(self):
self.conn = sqlite3.connect('BankDB.db')
self.c = self.conn.cursor()
self.date = datetime.datetime.now()
self.c.execute('INSERT INTO SAMPE VALUES(?, ?, ?, ?, ?, ?, ?);', [(self.accID), (self.accID), (self.ReceiversID.text()), (seccure.encrypt(self.Amount.text().encode(), b'8W;>i^H0qi|J&$coR5MFpR*Vn')) , (str(self.date.time())), (str(self.date.date())), (hashTransaction(self.date.time(), self.accID))])
print("Successfully Transfered")
# self.fetchdata = self.c.execute('SELECT NETBALANCE FROM USERS where ACCOUNT_ID = ?', [(self.accID)])
# for i in self.fetchdata:
# self.intbalnow = i[0]
# self.c.execute('UPDATE USERS SET NETBALANCE = ? WHERE ACCOUNT_ID = ?',[(self.intbalnow - int(self.Amount.text())), (self.accID)])
self.conn.commit()
self.close()
def main():
print "Mooltipass Programming Tool"
rng_buf_save_armed = True
global main_program_running
global serial_to_program
global serial_entered
global ic_programmed
# Delete temp .hex file that might have been left there
commands.getstatusoutput("rm /tmp/*.hex")
# Check for public key
if not os.path.isfile("publickey.bin"):
print "Couldn't find public key!"
return
# Check for firmware file presence
if not os.path.isfile("Mooltipass.hex"):
print "Couldn't find Mooltipass.hex"
sys.exit(0)
# Check for bootloader file presence
if not os.path.isfile("bootloader_mini.hex"):
print "Couldn't find bootloader_mini.hex"
sys.exit(0)
# Random bytes buffer
random_bytes_buffer = []
# HID device constructor
mooltipass_device = mooltipass_hid_device()
# Connect to device
if mooltipass_device.connect(True) == False:
print "No Mooltipass Connected!"
sys.exit(0)
# Generate a blank firmware to see if we actually can generate it and then print the hash
return_gen = generateFlashAndEepromHex("Mooltipass.hex", "bootloader_mini.hex", 12345, [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0], "/tmp/test_flash.hex", "/tmp/test_eeprom.hex", True)
os.remove("/tmp/test_flash.hex")
os.remove("/tmp/test_eeprom.hex")
# Check the success status
if return_gen[0] == False:
print "Couldn't generate a template flash hex!"
sys.exit(0)
# Check for random numbers file presence
if os.path.isfile("rng.bin"):
try:
random_bytes_buffer = pickle_read("rng.bin")
except EOFError:
# This happens when the file is corrupted
random_bytes_buffer = []
os.remove("rng.bin")
# Set to true to export the random bytes
if False:
f = open('randombytes.bin', 'wb')
random_bytes_buffer.tofile(f)
f.flush()
f.close()
# Read public key
public_key = pickle_read("publickey.bin")
# Start user input thread
user_input_thread = threading.Thread(target=user_input_loop, args=())
user_input_thread.start()
# Main loop
last_second = int(time.time())
while main_program_running:
time.sleep(.1)
# Our generator generates 8 bytes per second
ts = int(time.time())
if (ts - last_second) > 4:
# Fetch random bytes
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
random_bytes = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()[DATA_INDEX:DATA_INDEX+32]
random_bytes_buffer.extend(random_bytes)
last_second = ts
# Store buffer every minute
if datetime.now().second == 0:
if rng_buf_save_armed:
#print "Random bytes buffer saved:", len(random_bytes_buffer), "bytes available"
pickle_write(random_bytes_buffer, "rng.bin")
rng_buf_save_armed = False
else:
rng_buf_save_armed = True
# If a serial number was entered
if serial_entered == True and len(random_bytes_buffer) >= AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH:
# Store serial number to program
mooltipass_id = serial_to_program
# Generate keys from the random bytes buffer
aes_key1 = random_bytes_buffer[0:AES_KEY_LENGTH]
aes_key2 = random_bytes_buffer[AES_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH]
uid_key = random_bytes_buffer[AES_KEY_LENGTH+AES_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH]
uid = random_bytes_buffer[AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH]
del(random_bytes_buffer[0:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH])
# Write in file: Mooltipass ID | aes key 1 | aes key 2 | request ID key | UID, flush write
aes_key1_text = "".join(format(x, "02x") for x in aes_key1)
aes_key2_text = "".join(format(x, "02x") for x in aes_key2)
uid_key_text = "".join(format(x, "02x") for x in uid_key)
uid_text = "".join(format(x, "02x") for x in uid)
string_export = str(mooltipass_id)+"|"+ aes_key1_text +"|"+ aes_key2_text +"|"+ uid_key_text +"|"+ uid_text+"\r\n"
#print string_export
pickle_file_name = time.strftime("export/%Y-%m-%d-%H-%M-%S-Mooltipass-")+str(mooltipass_id)+".txt"
pickle_write(seccure.encrypt(string_export, public_key, curve='secp521r1/nistp521'), pickle_file_name)
# Generate programming file
generateFlashAndEepromHex("Mooltipass.hex", "bootloader_mini.hex", mooltipass_id, aes_key1, aes_key2, uid_key, uid, "/tmp/flash_"+str(mooltipass_id)+".hex", "/tmp/eeprom_"+str(mooltipass_id)+".hex", False)
# Start programming
return_data = start_programming(mooltipass_id, "/tmp/flash_"+str(mooltipass_id)+".hex", "/tmp/eeprom_"+str(mooltipass_id)+".hex", pickle_file_name)
# Check success state
if return_data[0] :
print "Programming succeeded (mooltipass id:", str(return_data[1]) + ")"
else:
print "Programming failed (mooltipass id:", str(return_data[1]) + ")"
# Delete encrypted keys file
os.remove(return_data[5])
# Free waiting thread
serial_entered = False
ic_programmed = True
def mooltipassMiniInit(mooltipass_device):
# Check for public key
if not os.path.isfile("publickey.bin"):
print "Couldn't find public key!"
return
# Check for export folder
if not os.path.isdir("export"):
print "Couldn't find export folder"
return
# Check for update bundle
if not os.path.isfile("updatefile.img"):
print "Couldn't find udpate file!"
return
# Read public key
public_key = pickle_read("publickey.bin")
# Loop
try:
temp_bool = 0
while temp_bool == 0:
# Operation success state
success_status = True
# Empty set password packet
mooltipass_password = array('B')
# We need 62 random bytes to set them as a password for the Mooltipass
sys.stdout.write('Step 1... ')
sys.stdout.flush()
#print "Getting first random half"
mooltipass_device.getInternalDevice().sendHidPacket(
mpmInitGetPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
data = mooltipass_device.getInternalDevice(
).receiveHidPacketWithTimeout()
mooltipass_password.extend(data[DATA_INDEX:DATA_INDEX + 32])
#print "Getting second random half"
mooltipass_device.getInternalDevice().sendHidPacket(
mpmInitGetPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
data2 = mooltipass_device.getInternalDevice(
).receiveHidPacketWithTimeout()
mooltipass_password.extend(data2[DATA_INDEX:DATA_INDEX + 30])
#print "Getting random number for UID & request key"
request_key_and_uid = array('B')
mooltipass_device.getInternalDevice().sendHidPacket(
mpmInitGetPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
request_key_and_uid.extend(mooltipass_device.getInternalDevice(
).receiveHidPacketWithTimeout()[DATA_INDEX:DATA_INDEX + 24])
# Check that we actually received data
if data == None or data2 == None:
success_status = False
print "fail!!!"
print "likely causes: defective crystal or power supply"
# Send our bundle
if success_status == True:
sys.stdout.write('Step 2... ')
sys.stdout.flush()
# Upload bundle, password is not used in that context
success_status = mooltipass_device.uploadBundle(
"0000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000000",
"updatefile.img", False)
# For the mini version this procedure doesn't check the last return packet because in normal mode the device reboots
if success_status == True:
if mooltipass_device.getInternalDevice(
).receiveHidPacketWithTimeout()[DATA_INDEX] == 0x01:
success_status = True
else:
success_status = False
print "last packet fail!!!"
print "likely causes: problem with external flash"
else:
success_status = False
print "fail!!!"
print "likely causes: problem with external flash"
# Inform the Mooltipass that the bundle is sent so it can start functional test
if success_status == True:
sys.stdout.write('Step 3... ')
sys.stdout.flush()
magic_key = array('B')
magic_key.append(0)
magic_key.append(187)
mooltipass_device.getInternalDevice().sendHidPacket(
mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2,
magic_key))
if mooltipass_device.getInternalDevice().receiveHidPacket(
)[DATA_INDEX] == 0x01:
success_status = True
print ""
else:
success_status = False
print "fail!!!"
print "likely causes: none"
# Mooltipass Mini doesn't have LEDs anymore
#if success_status == True:
# # Force tester to look at the LEDs
# raw_input("Press enter if LED1 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(149)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# raw_input("Press enter if LED2 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(150)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# raw_input("Press enter if LED3 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(151)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# raw_input("Press enter if LED4 is on: ")
# magic_key = array('B')
# magic_key.append(0)
# magic_key.append(152)
# mooltipass_device.getInternalDevice().sendHidPacket(mpmInitGetPacketForCommand(CMD_SET_MOOLTIPASS_PARM, 2, magic_key))
# mooltipass_device.getInternalDevice().receiveHidPacket()[DATA_INDEX]
# Wait for the mooltipass to inform the script that the test was successfull
if success_status == True:
temp_bool2 = False
sys.stdout.write(
'Please follow the instructions on the mooltipass screen...'
)
sys.stdout.flush()
while temp_bool2 != True:
test_result = mooltipass_device.getInternalDevice(
).receiveHidPacketWithTimeout()
if test_result == None:
sys.stdout.write('.')
sys.stdout.flush()
else:
if test_result[
CMD_INDEX] == CMD_FUNCTIONAL_TEST_RES and test_result[
DATA_INDEX] == 0:
success_status = True
print " ok!"
else:
success_status = False
print " fail!!!"
print "Please look at the screen to know the cause"
temp_bool2 = True
# Send set password packet
if success_status == True:
sys.stdout.write('Step 4... ')
sys.stdout.flush()
# TO REMOVE
#request_key_and_uid = [0]*24
mooltipass_device.getInternalDevice().sendHidPacket(
mpmInitGetPacketForCommand(CMD_SET_UID, 24,
request_key_and_uid))
if mooltipass_device.getInternalDevice().receiveHidPacket(
)[DATA_INDEX] == 0x01:
# Update Success status
success_status = True
else:
success_status = False
print "fail!!!"
print "likely causes: mooltipass already setup"
# Send set password packet
if success_status == True:
sys.stdout.write('Step 5...\r\n')
sys.stdout.flush()
# TO REMOVE
#mooltipass_password = [0]*62
mooltipass_device.getInternalDevice().sendHidPacket(
mpmInitGetPacketForCommand(CMD_SET_BOOTLOADER_PWD, 62,
mooltipass_password))
#print mooltipass_password
if mooltipass_device.getInternalDevice().receiveHidPacket(
)[DATA_INDEX] == 0x01:
# Set password success, ask mooltipass id
mp_id = None
while mp_id == None:
try:
mp_id = int(raw_input("Enter Mooltipass ID: MPM-"))
except ValueError:
mp_id = None
print "Wrong entered value, please try again"
# Write in file: Mooltipass ID | aes key 1 | aes key 2 | request ID key | UID, flush write
aes_key1 = "".join(
format(x, "02x") for x in mooltipass_password[:32])
aes_key2 = "".join(
format(x, "02x")
for x in mooltipass_password[32:]) + "".join(
format(x, "02x") for x in request_key_and_uid[22:])
request_uid_key = "".join(
format(x, "02x") for x in request_key_and_uid[0:16])
uid = "".join(
format(x, "02x") for x in request_key_and_uid[16:22])
string_export = str(
mp_id
) + "|" + aes_key1 + "|" + aes_key2 + "|" + request_uid_key + "|" + uid + "\r\n"
#print string_export
pickle_write(
seccure.encrypt(string_export,
public_key,
curve='secp521r1/nistp521'),
time.strftime("export/%Y-%m-%d-%H-%M-%S-Mooltipass-") +
str(mp_id) + ".txt")
# Update Success status
success_status = True
else:
success_status = False
print "fail!!!"
print "likely causes: mooltipass already setup"
if success_status == True:
# Let the user know it is done
print "Setting up Mooltipass MPM-" + str(mp_id).zfill(
4) + " DONE"
# Increment Mooltipass ID
mp_id = mp_id + 1
else:
print "|!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!|"
print "|---------------------------------------------------------|"
print "|---------------------------------------------------------|"
print "|Setting up Mooltipass MPM-" + "XXXX" + " FAILED |"
print "| |"
print "| PLEASE PUT AWAY THIS MOOLTIPASS!!!! |"
print "|---------------------------------------------------------|"
print "|---------------------------------------------------------|"
print "|!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!|"
# Disconnect this device
print "\r\nPlease disconnect this Mooltipass"
# Wait for no answer to ping
temp_bool2 = 0
while temp_bool2 == 0:
try:
# Send ping packet
mooltipass_device.pingMooltipass()
except usb.core.USBError as e:
#print e
temp_bool2 = 1
time.sleep(.5)
# Connect another device
print "Connect other Mooltipass"
# Wait for findHidDevice to return something
temp_bool2 = False
while temp_bool2 == False:
temp_bool2 = mooltipass_device.connect(False)
time.sleep(.5)
# Delay
time.sleep(1)
# New Mooltipass detected
print "New Mooltipass detected"
print ""
except KeyboardInterrupt:
print "File written, everything ok"
def doEccEncrypt(rsa_value, publicKey):
return seccure.encrypt(rsa_value, publicKey)
def seccure_get_encrypted_content(plain_text , public_key):
cipher_text = seccure.encrypt(plain_text, public_key)
return base64.encodestring(cipher_text)
# # # using elliptic curve cryptography to encrypt messages. # # use with seccure: https://github.com/MeeSeongIm/py-seccure # # import seccure str(seccure.passphrase_to_pubkey(b'my private key')) # devive the public key ciphertext = seccure.encrypt(b'This is a secret message.\n', b'8W;>i^H0qi|J&$coR5MFpR*Vn') print(ciphertext) seccure.decrypt(ciphertext, b'my private key') seccure.sign(b'This will be a signed message.\n', b'my private key') seccure.verify(b'This will be a signed message.\n', b'', b'8W;>i^H0qi|J&$coR5MFpR*Vn') # to verify the signature
def main():
print "Mooltipass Mass Programming Tool"
# Check for public key
if not os.path.isfile("publickey.bin"):
print "Couldn't find public key!"
return
# Check for firmware file presence
if not os.path.isfile("Mooltipass.hex"):
print "Couldn't find Mooltipass.hex"
sys.exit(0)
# Check for bootloader file presence
if not os.path.isfile("bootloader_mini.hex"):
print "Couldn't find bootloader_mini.hex"
sys.exit(0)
# Temp vars
prog_socket_states = [PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE, PROG_SOCKET_IDLE]
programming_threads = [0, 0, 0, 0, 0, 0, 0, 0, 0]
next_available_mooltipass_id = 1
mooltipass_ids_pending = []
mooltipass_ids_to_take = []
global displayed_texts
temp_counter = 0
# Random bytes buffer
random_bytes_buffer = []
# HID device constructor
mooltipass_device = mooltipass_hid_device()
# Connect to device
if mooltipass_device.connect(True) == False:
sys.exit(0)
# Generate a blank firmware to see if we actually can generate it and then print the hash
return_gen = generateFlashAndEepromHex("Mooltipass.hex", "bootloader_mini.hex", 12345, [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0], [0,0,0,0,0,0], "/tmp/test_flash.hex", "/tmp/test_eeprom.hex", True)
os.remove("/tmp/test_flash.hex")
os.remove("/tmp/test_eeprom.hex")
# Check the success status
if return_gen[0] == False:
print "Couldn't generate a template flash hex!"
sys.exit(0)
# Check for random numbers file presence
if os.path.isfile("rng.bin"):
try:
random_bytes_buffer = pickle_read("rng.bin")
except EOFError:
# This happens when the file is corrupted
random_bytes_buffer = []
os.remove("rng.bin")
# Set to true to export the random bytes
if False:
f = open('randombytes.bin', 'wb')
random_bytes_buffer.tofile(f)
f.flush()
f.close()
# Check for next mooltipass id file
if os.path.isfile("mooltipass_id.bin"):
next_available_mooltipass_id = pickle_read("mooltipass_id.bin")
# Check for available mooltipass ids file
if os.path.isfile("mooltipass_av_ids.bin"):
mooltipass_ids_to_take = pickle_read("mooltipass_av_ids.bin")
# Check for available mooltipass ids file
if os.path.isfile("mooltipass_pending_ids.bin"):
mooltipass_ids_pending = pickle_read("mooltipass_pending_ids.bin")
if len(mooltipass_ids_pending) > 0:
os.remove("mooltipass_pending_ids.bin")
mooltipass_ids_to_take.extend(mooltipass_ids_pending)
print "Adding previously pending ids:", mooltipass_ids_pending
# Remove possible duplicates
mooltipass_ids_to_take = list(set(mooltipass_ids_to_take))
print "Mooltipass IDs to take:", mooltipass_ids_to_take
pickle_write(mooltipass_ids_to_take, "mooltipass_av_ids.bin")
# Read public key
public_key = pickle_read("publickey.bin")
# Display text on screen
add_line_on_screen(mooltipass_device, "Python Script Started")
add_line_on_screen(mooltipass_device, return_gen[1][0:20])
add_line_on_screen(mooltipass_device, return_gen[1][20:])
# Main loop
while True:
time.sleep(.3)
temp_counter = temp_counter + 1
# Check if a button is pressed
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_BUTTON_PRESSED, 0, None))
received_data = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
for i in range(0,9):
if received_data[DATA_INDEX+i] != 0:
# Programming button was pressed on the bench
print "Button", i, "pressed"
prog_socket_states[i] = PROG_SOCKET_PENDING
# Get number of available random bytes
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_GET_RNG_B_AVAIL, 0, None))
nb_random_bytes_available = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()[DATA_INDEX]
# If more than 32 bytes, fetch them
if nb_random_bytes_available >= 32:
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_GET_RANDOM_NUMBER, 0, None))
random_bytes = mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()[DATA_INDEX:DATA_INDEX+32]
random_bytes_buffer.extend(random_bytes)
# Store random bytes buffer every now and then
if temp_counter % 30 == 0:
pickle_write(random_bytes_buffer, "rng.bin")
print "Random bytes buffer saved:", len(random_bytes_buffer), "bytes available"
#print random_bytes_buffer
# If we have enough random bytes and a button was pressed, program the MCU
for socket_id in range(0, 9):
if prog_socket_states[socket_id] == PROG_SOCKET_PENDING and len(random_bytes_buffer) >= AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH:
print "Starting programming for socket", socket_id
# Generate new mooltipass ID
if len(mooltipass_ids_to_take) > 0:
mooltipass_id = mooltipass_ids_to_take[0]
del(mooltipass_ids_to_take[0])
else:
# No ids to take, take the next available one
mooltipass_id = next_available_mooltipass_id
next_available_mooltipass_id = next_available_mooltipass_id + 1
# Store the new id in file
pickle_write(next_available_mooltipass_id, "mooltipass_id.bin")
# Generate keys from the random bytes buffer
aes_key1 = random_bytes_buffer[0:AES_KEY_LENGTH]
aes_key2 = random_bytes_buffer[AES_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH]
uid_key = random_bytes_buffer[AES_KEY_LENGTH+AES_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH]
uid = random_bytes_buffer[AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH]
del(random_bytes_buffer[0:AES_KEY_LENGTH+AES_KEY_LENGTH+UID_REQUEST_KEY_LENGTH+UID_KEY_LENGTH])
# Write in file: Mooltipass ID | aes key 1 | aes key 2 | request ID key | UID, flush write
aes_key1_text = "".join(format(x, "02x") for x in aes_key1)
aes_key2_text = "".join(format(x, "02x") for x in aes_key2)
uid_key_text = "".join(format(x, "02x") for x in uid_key)
uid_text = "".join(format(x, "02x") for x in uid)
string_export = str(mooltipass_id)+"|"+ aes_key1_text +"|"+ aes_key2_text +"|"+ uid_key_text +"|"+ uid_text+"\r\n"
#print string_export
try:
pickle_file_name = time.strftime("export/%Y-%m-%d-%H-%M-%S-Mooltipass-")+str(mooltipass_id)+".txt"
pickle_write(seccure.encrypt(string_export, public_key, curve='secp521r1/nistp521'), pickle_file_name)
except NameError:
pickle_file_name = "test"
# Generate programming file
generateFlashAndEepromHex("Mooltipass.hex", "bootloader_mini.hex", mooltipass_id, aes_key1, aes_key2, uid_key, uid, "/tmp/flash_"+str(mooltipass_id)+".hex", "/tmp/eeprom_"+str(mooltipass_id)+".hex", False)
# Change state to programming
prog_socket_states[socket_id] = PROG_SOCKET_PROGRAMMING
# Display info on display
add_line_on_screen(mooltipass_device, "#"+str(socket_id)+": programming id "+str(mooltipass_id))
# Launch a programming thread
mooltipass_ids_pending.append(mooltipass_id)
pickle_write(mooltipass_ids_pending, "mooltipass_pending_ids.bin")
programming_threads[socket_id] = FuncThread(start_programming, socket_id, mooltipass_id, "/tmp/flash_"+str(mooltipass_id)+".hex", "/tmp/eeprom_"+str(mooltipass_id)+".hex", pickle_file_name)
programming_threads[socket_id].start()
# Check for thread end
for socket_id in range(0, 9):
# Check if we're currently programming
if prog_socket_states[socket_id] == PROG_SOCKET_PROGRAMMING:
# Check if the thread ended
if not programming_threads[socket_id].is_alive():
print "Thread for socket", socket_id, "ended"
# Fetch the return data
return_data = programming_threads[socket_id].join()
# Delete the temporary programming files
os.remove(return_data[2])
os.remove(return_data[3])
# Check success state
if return_data[0] :
print "Programming for socket", socket_id, "succeeded (mooltipass id:", str(return_data[1]) + ")"
# Save our mooltipass pool in case it was an id to take
pickle_write(mooltipass_ids_to_take, "mooltipass_av_ids.bin")
# Inform programming platform of success state
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_PROG_DONE, 1, [socket_id]))
mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
add_line_on_screen(mooltipass_device, "#"+str(socket_id)+": "+return_data[4])
else:
print "Programming for socket", socket_id, "failed (mooltipass id:", str(return_data[1]) + ")"
# Put the mooltipass id back in the pool
mooltipass_ids_to_take.append(return_data[1])
pickle_write(mooltipass_ids_to_take, "mooltipass_av_ids.bin")
# Delete encrypted keys file
os.remove(return_data[5])
# Inform programming platform of success state
mooltipass_device.getInternalDevice().sendHidPacket(mooltipass_device.getPacketForCommand(CMD_PROG_FAILURE, 1, [socket_id]))
mooltipass_device.getInternalDevice().receiveHidPacketWithTimeout()
add_line_on_screen(mooltipass_device, "#"+str(socket_id)+": "+return_data[4])
# Remove id from pending ones
mooltipass_ids_pending.remove(return_data[1])
pickle_write(mooltipass_ids_pending, "mooltipass_pending_ids.bin")
# Reset prog state
prog_socket_states[socket_id] = PROG_SOCKET_IDLE
def raw_enc(self, data, pubkey=''):
return seccure.encrypt(data, pubkey)
