def main():
'''Main method
'''
rnd = SystemRandom()
all_chars = printable.strip()
key = ''.join([rnd.choice(all_chars) for _ in range(50)])
with open(sys.argv[1], 'w') as fd_obj:
fd_obj.write(key)
def main(stdscr):
curses.curs_set(0)
curses.init_pair(9, FG, BG)
stdscr.bkgd(curses.color_pair(9))
curses.start_color()
size = stdscr.getmaxyx()
PMatrix = collections.namedtuple("PMatrix",
["foreground", "background", "dispense"])
matr = PMatrix([], rand_string(printable.strip(), size[0] * size[1]), [])
delta = 0
lt = time.time()
while 1:
if CLEAR:
stdscr.clear()
else:
stdscr.erase()
now = time.time()
delta += (now - lt) * UPDATES_PER_SECOND
lt = now
while delta >= 1:
if stdscr.getmaxyx() != size:
# In the event that the size of the screen has changed,
# return from this function, effectively restarting
# pmatrix.
return
for _ in xrange(LETTERS_PER_UPDATE):
matr.dispense.append(random.randint(0, size[1] - 1))
for i, c in enumerate(matr.dispense):
matr.foreground.append([0, c])
if not random.randint(0, PROBABILITY):
del matr.dispense[i]
for a, b in enumerate(matr.foreground):
if b[0] < size[0] - 1:
stdscr.addstr(b[0], b[1],
matr.background[b[0] * size[0] + b[1]],
curses.color_pair(9))
b[0] += 1
else:
# We cannot simply use `del b`. This is because using del
# on the local variable b will only remove its binding
# from the local namespace. We have to remove it directly
# from the list.
del matr.foreground[a]
delta -= 1
stdscr.refresh()
def mutateUtterance(utt, botDir, percentage=10, variability=0):
counter = 0
keysAscii = list(printable.strip(whitespace))
for position, letter in enumerate(utt):
if not (letter.isspace()):
mutate = choices([True, False],
[percentage / 100, 1 - percentage / 100])[0]
if mutate:
uttAux = list(utt)
uttAux[position] = choice(keysAscii)
utt = "".join(uttAux)
if percentage > 1:
percentage += variability
counter += 1
statsDir = "/home/sergio/Desktop/proyecto/codigo/output/{}/".format(botDir)
filename = "mutateUtteranceStats.txt"
writeCounter(statsDir, filename, counter, len(utt))
return utt
def make_pass(pool='chars',
min_entropy=20,
min_length=8,
max_length=30):
if min_length > max_length:
raise Exception('min_length must be <= max_length.')
if pool == 'chars':
pool = printable.strip()
elif pool == 'lowercase':
pool = lowercase
elif pool == 'alphanumeric':
pool = ascii_letters + digits
ind_entropy = log(len(pool), 2)
min_length = max( int(ceil(min_entropy/ind_entropy)), min_length )
# no reason to limit entropy by not allowing repeats (thus I use choice() instead of sample() )
element_lst = [choice(pool) for i in xrange(min_length)]
return ''.join(element_lst)
FORES = [
Fore.BLACK, Fore.RED, Fore.GREEN, Fore.YELLOW, Fore.BLUE, Fore.MAGENTA,
Fore.CYAN, Fore.WHITE
]
BACKS = [
Back.BLACK, Back.RED, Back.GREEN, Back.YELLOW, Back.BLUE, Back.MAGENTA,
Back.CYAN, Back.WHITE
]
STYLES = [Style.DIM, Style.NORMAL, Style.BRIGHT]
# This assumes your terminal is 80x24. Ansi minimum coordinate is (1,1).
MINY, MAXY = 1, 24
MINX, MAXX = 1, 80
# set of printable ASCII characters, including a space.
CHARS = ' ' + printable.strip()
PASSES = 1000
def main():
colorama.init()
pos = lambda y, x: Cursor.POS(x, y)
# draw a white border.
print(Back.WHITE, end='')
print('%s%s' % (pos(MINY, MINX), ' ' * MAXX), end='')
for y in range(MINY, 1 + MAXY):
print('%s %s ' % (pos(y, MINX), pos(y, MAXX)), end='')
print('%s%s' % (pos(MAXY, MINX), ' ' * MAXX), end='')
# draw some blinky lights for a while.
for i in range(PASSES):
from warnings import warn
from string import (ascii_letters, printable, digits, whitespace)
OPEN_GROUP = "["
END_GROUP = "]"
CONCAT_GROUP = "+"
GROUP_SUFFIX_AST = "*"
GROUP_CATEGORIES = {
"alpha": ascii_letters,
"alphanum": ascii_letters + digits,
"digits": digits,
"underscore": "_",
"whitespace": whitespace.replace("\n", ""),
".": printable.strip(),
"string": printable.replace('"', ""),
"nest": "|"
}
def parse_error(idx, string):
raise SyntaxError(f"{idx+1}: {string}")
def category_error(category):
raise ValueError(f"category {category!r} doesn't exist")
def internal_error(string):
state_concatenating = False
raise RuntimeError(string)
from pwn import *
from string import printable
from random import choice
char = printable.strip()
tmp = ''.join(choice(char) for i in range(1000))
string = tmp.encode('base64').replace('\n', '')
def kirim(isi):
r.recvuntil(': ')
r.sendline('ENCODE' + isi)
return r.recvline().strip('\n')
cmpr = lambda x, y: dict(zip(x, y))
r = remote('127.0.0.1', 6000)
#r = process('python app.py')
flag = kirim('FLAG')
enc = kirim(' ' + tmp)
dic = cmpr(enc, string)
print ''.join(dic[i] for i in flag).decode('base64')
def randomKey(number):
numPrintable = len(printable.strip())
key = ':'
for i in range(number - 1):
key = key + printable[randint(0, numPrintable) - 1]
return key
from string import printable
import random
digit = printable.strip()
passw = []
lenght = input("Password Lenght ")
def passwords(lenght):
if lenght == '':
print("no password is of 0 words")
exit()
elif lenght.replace(' ', '').isalpha() == True:
print("type a number")
exit()
else:
for _ in range(int(lenght)):
passw.append(random.choice(digit))
word = ''.join(passw)
print(word)
passwords(lenght)
def main(stdscr):
curses.curs_set(0)
curses.init_pair(9, FG, BG)
stdscr.bkgd(curses.color_pair(9))
curses.start_color()
size = stdscr.getmaxyx()
# background is a matrix of the actual letters (not lit up) -- the underlay.
# foreground is a binary matrix representing the position of lit letters -- the overlay.
# dispense is where new 'streams' of lit letters appear from.
background = rand_string(printable.strip(), size[0] * size[1])
foreground = []
dispense = []
delta = 0
bg_refresh_counter = random.randint(3, 7)
lt = time.time()
while 1:
if CLEAR:
stdscr.clear()
else:
stdscr.erase()
now = time.time()
delta += (now - lt) * UPDATES_PER_SECOND
lt = now
while delta >= 1:
if stdscr.getmaxyx() != size:
# In the event that the size of the screen has changed,
# return from this function, effectively restarting
# pmatrix.
return
for _ in range(LETTERS_PER_UPDATE):
dispense.append(random.randint(0, size[1] - 1))
for i, c in enumerate(dispense):
foreground.append([0, c])
if not random.randint(0, PROBABILITY):
del dispense[i]
for a, b in enumerate(foreground):
if b[0] < size[0] - 1:
stdscr.addstr(b[0], b[1],
background[b[0] * size[0] + b[1]],
curses.color_pair(9))
b[0] += 1
else:
# We cannot simply use `del b`. This is because using del
# on the local variable b will only remove its binding
# from the local namespace. We have to remove it directly
# from the list.
del foreground[a]
bg_refresh_counter -= 1
if bg_refresh_counter <= 0:
background = rand_string(printable.strip(), size[0] * size[1])
bg_refresh_counter = random.randint(3, 7)
delta -= 1
stdscr.refresh()
from colorama import Fore, Back, Style
from random import randint, choice
from string import printable
# Fore, Back and Style are convenience classes for the constant ANSI strings that set
# the foreground, background and style. The don't have any magic of their own.
FORES = [ Fore.BLACK, Fore.RED, Fore.GREEN, Fore.YELLOW, Fore.BLUE, Fore.MAGENTA, Fore.CYAN, Fore.WHITE ]
BACKS = [ Back.BLACK, Back.RED, Back.GREEN, Back.YELLOW, Back.BLUE, Back.MAGENTA, Back.CYAN, Back.WHITE ]
STYLES = [ Style.DIM, Style.NORMAL, Style.BRIGHT ]
# This assumes your terminal is 80x24. Ansi minimum coordinate is (1,1).
MINY, MAXY = 1, 24
MINX, MAXX = 1, 80
# set of printable ASCII characters, including a space.
CHARS = ' ' + printable.strip()
PASSES = 1000
def main():
colorama.init()
# gratuitous use of lambda.
pos = lambda y, x: '\x1b[%d;%dH' % (y, x)
# draw a white border.
print(Back.WHITE, end='')
print('%s%s' % (pos(MINY, MINX), ' '*MAXX), end='')
for y in range(MINY, 1+MAXY):
print('%s %s ' % (pos(y, MINX), pos(y, MAXX)), end='')
print('%s%s' % (pos(MAXY, MINX), ' '*MAXX), end='')
# draw some blinky lights for a while.
for i in range(PASSES):
from ast import literal_eval
from base64 import b64encode
from hashlib import sha1
from itertools import product
from string import printable
import pwn
import schnorr3
printable = printable.strip()
DEBUG = False
if DEBUG:
p = pwn.remote("localhost", 20014)
else:
p = pwn.remote("tcp.realworldctf.com", 20014)
pwn.context.log_level = "debug"
def PoW(proof, length):
assert len(proof) < length
for work in product(printable, repeat=5):
work = proof + "".join(work).encode()
h = sha1(work).hexdigest()
if h.endswith("0000"):
break
return work
def menu(pubkey, choice):
p.recvuntil("Please tell us your public key:")
def main(stdscr):
curses.curs_set(0)
curses.init_pair(9, FG, BG)
stdscr.bkgd(curses.color_pair(9))
curses.start_color()
size = stdscr.getmaxyx()
# background is a matrix of the actual letters (not lit up) -- the underlay.
# foreground is a binary matrix representing the position of lit letters -- the overlay.
# dispense is where new 'streams' of lit letters appear from.
background = rand_string(printable.strip(), size[0] * size[1])
foreground = []
dispense = []
delta = 0
bg_refresh_counter = random.randint(3, 7)
lt = time.time()
while 1:
if CLEAR:
stdscr.clear()
else:
stdscr.erase()
now = time.time()
delta += (now - lt) * UPDATES_PER_SECOND
lt = now
while delta >= 1:
if stdscr.getmaxyx() != size:
# In the event that the size of the screen has changed,
# return from this function, effectively restarting
# pmatrix.
return
for _ in range(LETTERS_PER_UPDATE):
dispense.append(random.randint(0, size[1] - 1))
for i, c in enumerate(dispense):
foreground.append([0, c])
if not random.randint(0, PROBABILITY):
del dispense[i]
for a, b in enumerate(foreground):
if b[0] < size[0] - 1:
stdscr.addstr(b[0], b[1],
background[b[0] * size[0] + b[1]],
curses.color_pair(9))
b[0] += 1
else:
# We cannot simply use `del b`. This is because using del
# on the local variable b will only remove its binding
# from the local namespace. We have to remove it directly
# from the list.
del foreground[a]
bg_refresh_counter -= 1
if bg_refresh_counter <= 0:
background = rand_string(printable.strip(), size[0] * size[1])
bg_refresh_counter = random.randint(3, 7)
delta -= 1
stdscr.refresh()
'''Basic classes for creating a pygame application'''
import pygame, math, sys
from string import printable as _printable
from typing import Type, TypeVar, Optional
from glob import glob
from pygame.locals import *
from recordclass import RecordClass
printable = _printable.strip() + ' '
T = TypeVar('T', bound='ManyOf')
class ManyOf:
'''
A class that can be used to group objects and call them at the same time
reads methods from a given class and creates those methods in this class
by looping over each provided object and calling that method on it
'''
def __init__(self, cls: Type[T], *obj_list: tuple[T]):
'''
initialize the ManyOf class
:cls: the type or class of the objects in obj_list
:obj_list: the list of objects that the methods will be called on
'''
if len(obj_list) < 1:
raise ValueError('Must pass at least one object in obj_list')
self.obj_list = obj_list
for method in filter(lambda x: x != '__class__', dir(cls)):
if not callable(getattr(cls, method)): # if the method is not a function
continue # move on to the next method
from string import printable
from django.core import validators
from django.core.exceptions import ValidationError
from django.utils.deconstruct import deconstructible
from django.utils.translation import gettext_lazy as _
PRINTABLE_CHARS = set(printable.strip() + " ")
def printable_name(value: str) -> None:
"""Ensure that team names are printable."""
if not set(value) <= PRINTABLE_CHARS:
raise ValidationError(
_('%(value)s contains non-printable characters.'),
params={'value': value},
)
@deconstructible
class NameValidator(validators.RegexValidator):
regex = r"^[\w.+ -]+\Z"
message = _("Enter a valid name. This value may contain only letters, "
"numbers, spaces, and ./+/-/_ characters.")
flags = 0
@deconstructible
class LenientNameValidator(validators.RegexValidator):
regex = r"^[]+\Z"
message = _("Enter a valid name. This value may contain only letters, "
def make_pass(pool='chars',
min_entropy=20,
min_length=8,
max_length=30,
filter_fn=None,
mod_fn=None,
join_str='',
verbose=False,
**kwargs):
option_names = ['word_file']
for arg_name in list(kwargs.keys()):
if arg_name not in option_names:
print('Warning: option', arg_name, 'not known.')
if min_length > max_length:
raise Exception('min_length must be <= max_length.')
# error checking
if pool != 'words' and 'word_file' in kwargs:
print(
'Warning: word file supplied but pool not set to words. Ignoring file...',
file=stderr)
# figure out what pool we are using
if pool == 'chars':
pool = printable.strip()
elif pool == 'lowercase':
pool = ascii_lowercase
elif pool == 'alphanumeric':
pool = ascii_letters + digits
elif pool == 'words':
if 'word_file' not in kwargs:
word_file = '/usr/share/dict/words'
else:
word_file = kwargs['word_file']
if not isfile(word_file):
raise Exception('File \'' + word_file + '\' does not exist.')
f = open(word_file)
pool = [word.strip() for word in f.readlines()]
# set the modification to capitalize first letter of each
if mod_fn is None:
mod_fn = lambda x: x[0].upper() + x[1:].lower()
elif type(pool) != list:
raise Exception("Pool must be a list, 'chars', or 'words'.")
# get rid of the empty string, obviously
pool = [x for x in pool if x != '']
# use a set to remove duplicates. also it's a more appropriate data structure
pool = set(pool)
if len(pool) == 0:
raise Exception("Pool is the empty set!")
# filter by the given function
if filter_fn:
pool = {x for x in pool if filter_fn(x)}
if len(pool) == 0:
raise Exception("Filter returned False for every element of pool.")
# modify pool using the given function
if mod_fn:
pool = set(map(mod_fn, pool))
entropy_per_element = log(len(pool), 2)
# figure out the smallest number of elements needed to achieve the minimum requested entropy
min_elements = int(ceil(min_entropy / entropy_per_element))
# we want a length distribution that stays under max_length but still achieves the entropy needed.
# so we drop really long words from the pool, so that the average word length is correct.
# this only matters if the strings in pool are multiple characters
if any([len(x) > 1 for x in pool]):
# figure out distribution of lengths
len_dist = [0] * (max([len(x) for x in pool]))
for x in pool:
len_dist[len(x) - 1] += 1
for n, freq in enumerate(len_dist):
element_length = n + 1 # zero indexed...
average_length = sum(
((np + 1) * freqp
for np, freqp in enumerate(len_dist[:n + 1]))) / sum(
(x + 1 for x in len_dist[:n + 1]))
entropy_per_element = log(sum((x + 1 for x in len_dist[:n + 1])),
2)
if float(max_length
) / average_length * entropy_per_element < min_entropy:
if sum((x + 1 for x in len_dist[:n]
)) == 0: # started below the min_entropy :(
raise max_len_exception(max_length, min_length,
min_entropy)
break
max_element_size = n
# now generate the final pool we want.
# it is everything with length less than or equal to element_size (which is now the max value we would want)
# could also add some from the last group with length equal to element_size? need to calculate n_last
pool = {
x
for x in pool if len(x) < max_element_size + 1
} # | set( sample([x for x in pool if len(x) == max_element_size+1], n_last))
# recalculate these values
entropy_per_element = log(sum((x + 1 for x in len_dist[:n])), 2)
min_elements = int(ceil(min_entropy / entropy_per_element))
# make sure it is at least possible to achieve the entropy we want, while keeping it under max_length
if min_elements * min([len(x) for x in pool]) > max_length:
raise max_len_exception(max_length, min_length, min_entropy)
# need to switch back to a list for the random module
pool = list(pool)
# no reason to limit entropy by not allowing repeats, so use choice instead of sample
element_lst = [choice(pool) for i in range(min_elements)]
# we might get unlucky and have it too long. keep trying until we don't
# this reduces the entropy a small bit, since we are rejecting some possibilities.
# but calculating the true entropy is annoying so... sorry
while len(join_str.join(element_lst)) > max_length:
print(
'Redoing... too long. Entropy slightly less than advertised.\nMaybe try increasing max_length, or using a word list with shorter words.'
)
element_lst = [choice(pool) for i in range(min_elements)]
# if we are below min_length still, add elements until we get there
while len(join_str.join(element_lst)) < min_length:
element_lst += [choice(pool)]
if verbose:
print('Password: '******'\n')
if any([len(x) > 1 for x in pool]):
print(
'Average word length: ', '{:.2f}'.format(
float(sum([len(x) for x in pool])) / len(pool)))
print('Bits entropy: ',
'{:.2f}'.format(entropy_per_element * len(element_lst)))
print('Length: ', len(join_str.join(element_lst)))
print('N. elements: ', len(element_lst))
return join_str.join(element_lst)