def r(name):
im = Image.open(name)
os.remove(name)
r = (ra(2, 10), ra(2, 10), ra(20, 150))
print(r)
dst_grid = griddify(shape_to_rect(im.size), r[0], r[1])
src_grid = distort_grid(dst_grid, r[2])
mesh = grid_to_mesh(src_grid, dst_grid)
im = im.transform(im.size, Image.MESH, mesh)
im.save(name)
def luhn():
"""
Алгоритм Луна использует простое правило вычисления контрольной суммы для проверки идентификационных номеров,
таких как номера пластиковых карт.
Алгоритм определяет ошибки ввода одной неправильной цифры,
а также почти все перестановки соседних цифр, за исключением перестановки 09-90 или обратной 90-09.
В данном случае в задании было указано генерировать номера карт
с 400000 + случайные цифры(длина номера карты 16), которые должны проходить проверку
алгоритмом Луна.
"""
card = str("400000" + "".join([str(ra(0, 9)) for _ in range(10)]))
card = [int(i) for i in card]
rest = card[:len(card) - 1]
for i in range(len(rest)):
if i % 2 == 0:
rest[i] = rest[i] * 2
for i in range(len(rest)):
if rest[i] > 9:
rest[i] = rest[i] - 9
s = sum(rest)
last_digit = 0
if s % 10 == 0:
last_digit = 0
else:
last_digit = 10 - (s % 10)
valid = card[:len(card) - 1]
valid.append(last_digit)
valid = [str(i) for i in valid]
return "".join(valid)
def newlocus(self):
self.resetValues()
self.c1 = Complex(ra(-16,16),ra(-16,16))
self.locus_type = ra(1,3)
if self.locus_type == 1:
self.radius = ra(1,10)
elif self.locus_type == 2:
self.c1 = Complex(ra(-12,12),ra(-12,12))
self.rand = ra(-8,8)
while self.rand == 0:
self.rand = ra(-8,8)
self.theta = np.pi / self.rand
elif self.locus_type == 3:
self.c2 = Complex(ra(-16,16),ra(-16,16))
self.locus_type_text = lociTypeDecider(self.locus_type)
def fileName():
global names
file = open("Footer.txt")
data = file.read().split('\n')[:-1]
file.close()
randomCollection = []
count = 1
for i in data:
string = i.split(",")
year = findYear(string[-1])
month = findMonth(string[-2])
date = findDate(string[-2])
# print(count," | ",date, month, year)
count += 1
random = ra(100001,999999)
while(random in randomCollection):
random = ra(100001,999999)
names.append('t' + year + month + date + str(random))
def sek(out, m):
i = n.array(I.open(out))
s = bee(ord(m))
b = 2
for _ in range(Z):
while True:
r, g = ch(s)
if ra(False, True) == False:
r += n.random.normal(scale=16)
if r < False or r >= 128: continue
else:
g += n.random.normal(scale=16)
if g < False or g >= 128: continue
r = int(r)
g = int(g)
i[r][g][b] |= True
break
return i
def play_guess_the_number():
print("Please enter the minimum value:")
i=int(input())
print("Please enter the maximum value:")
j=int(input())
while(j<=i):
print("The maximum cannot be lower than or equal to the minimum. Please choose a different maximum:")
j=int(input())
n=ra(i,j,1)
print("I am thinking of a number between {} and {}. Can you guess what it is?".format(i,j))
while(1==1):
i=int(input())
if n==i:
print("Congratulations! You guessed my number!")
break
elif n>i:
print("Your guess is too low!")
else:
print("You guess is too high!")
print("Try again:")
def create_account(self):
card_number = self.luhn()
pin = "".join([str(ra(0, 9)) for _ in range(4)])
self.db.db_add_account(card_number, pin)
return card_number, pin
def rand_int():
return int(ma.floor(ra()*10))
pygame.quit()
raise SystemExit
painettu = pygame.key.get_pressed() #täällä kaikki painetut näppäimet
x_info = painettu[pygame.K_RIGHT] - painettu[pygame.K_LEFT]
if painettu[pygame.K_UP] and ground_touch == True:
yvel = -21 + difficulty
ground_touch = False
xvel += x_info
if points >= seur: #luodaan uusi taso
seur = points + 100
tyyppi = 0
if turn == 1:
tyyppi = ra(0, 3)
else:
tyyppi = ra(0, 1)
if tyyppi == 2: #punainen, aiheuttaa mahdottomia kohtia, jos liian leveää
platwidth = ra(60, 150)
else:
platwidth = ra(60, 300)
left = ra(15, 585 - platwidth)
if tyyppi != 3:
items.append(platform(left, left + platwidth, -points, typ=tyyppi))
turn *= -1
if ground_touch == True:
yvel = 0
y = points + touch_y - 20
else:
import numpy as np
from sklearn import datasets, linear_model
from random import randint as ra
import matplotlib.pyplot as plt
# 定义训练数据
x = np.array([[
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01
],
[
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01
],
[
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01
],
[
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
ra(0, 99) * 0.01,
for i in range(len(board)):
if board[i] == ' ':
tBoard = dc(board)
tBoard[i] = player
score, move = bestMove(tBoard, opponent)
results.append((score, i))
if player == 'O':
return max(results)
else:
return min(results)
""" Testing """
while True:
print()
p = ra(0, 1)
print("Index layout")
printBoard([1, 2, 3, 4, 5, 6, 7, 8, 9])
board = initializeBoard()
if p == 0:
print("Computer plays first ")
while not isWin(board, "O") and not isWin(board,
"O") and not isDraw(board):
bestmove = bestMove(board, "O")[1]
board[bestmove] = "O"
printBoard(board)
if isWin(board, "O"):
print("Computer wins")
break
i = int(input("Enter your move: ")) - 1
board[i] = "X"
