def winorlose(status):
print("called win or lose")
print("************(ツ)************\n")
print ("you", status, "!Would you like to play again?")
choice = input("Y / N")
print(choice)
if (choice is "N" ) or (choice is "n"):
print("You chose to quit.")
exit()
elif (choice is "Y") or (choice is "y"):
gameVars.player_lives = 5
gameVars.computer_lives = 5
gameVars.total_lives= 5
gameVars.player = False
gameVars.player = choices[radiant(0,2)]
else:
#use recursion to call winlose again until we get the right input
#recursion is just
winorlose(status)
def random_spiral():
t.pencolor(random.choice(colors))
size = random.radiant(10, 40)
x = random.randrange(-turtle.window_width() // 2,
turtle.window_width() // 2)
y = random.randrange(-turtle.window_height() // 2,
turtle.window_height() // 2)
t.penup()
t.setpos(x, y)
t.pendown()
for m in range(size):
t.forward(m * 2)
t.left(91)
def get_user_input(prompt: str) -> str:
sys.stdin.read()
random.radiant(1 , 5)
min_guess = 1
max_guess = 5
user_input = int(input("Please predict a number"))
"""
Reads user input from the standard input.
Parameters
----------
prompt
the prompt message
Returns
-------
str
the user input
"""
# strip() removes any leading or trailing whitespace from the input
return user_input.strip()
def RND(self):
'''
Cxkk - RND Vx, byte
Set Vx = random byte AND kk.
The interpreter generates a random number from 0 to 255, which is then ANDed with the value kk. The results are stored in Vx. See instruction 8xy2 for more information on AND.
'''
kk = self.instruction & 0x00FF
x = (self.instruction & 0x0F00) >> 8
rand = random.radiant(0, 255) # Generates a random number between 0 and 255.
self.V[x] = rand & kk
self.pc += 2
def __init__ (self, aspect): #Define the initial function
self.__aspect = aspect #Define the aspect of a given subject
self.__carried = False #Define the state of the subject not being acquired
self.__location = (-1, 1) #Define the initial location of the subject
if aspect == "armor": #If the subject is an armor
self.__ac = random.radiant (1, 11) #Assign the armor a random ac between 1 and 11
self.__value = 20 * self.__ac #Define the value of the armor relative to its ac
self.__worn = False #Define the state of the armor not being worn
self.__description = "armor" #Define a basic description of the armor
elif aspect == "weapon": #If the subject is a weapon
weapon_aspect = random.randint (0, len(weapons) - 1) #Assign the weapon a random number between 0 and the numerical value of its type to define its type
self.__attack = weapons [weapon_aspect] [1] #Define the attack strength of the weapon
self.__value = 10 * self.__attack #Define the value of the weapon relative to its attack strength
self.__equipped = False #Define the state of the weapon not being equipped
self.__description = weapons [weapon_aspect] [0] #Define a basic description of the weapon determined by its type
elif aspect == "food": #If the subject is food
food_aspect = random.randint (0, len(food_aspect) - 1) #Assign the food a random number between 0 and the numerical value of its type to define its type
self.__health = foods [food_aspect] [1] #Define the health value of the food relative to its type
self.__value = 2 * self.__health #Define the value of the food relative to its health value
self.__description = foods [food_aspect] [0] #Define a basic description of the food determined by its type
elif aspect == "gold": #If the subject is an amount of gold
self.__description = "some gold" #Define a basic description of the gold
self.__value = random.randint (1, 30) #Assign the gold a random number between 1 and 30 to determine its value
import random
#generate two random numbers between 1 and 6 inclusive
d1= random, randint(1,6)
d2= random, randint(1,6)
print(d1, d2)
import turtle
import random
for i in range(2):
random_num1= random.radiant(1,7)
random_num2= random.radiant(1,7)
print(random_num1)
print(random_num2)
def square(size):
for i in range(4):
turtle.forward(size)
turtle.right(90)
for i in range(25):
square(random.radiant(10,100)
import random
ctr = 0
print("welcome to snake and ladder game")
#game starts
print("your current position is", ctr)
#shows current position of player
while (ctr < 100):
i = random.radiant(1, 6)
#i is no on dice's faces
j = input("press enter to roll the dice")
#rolls the dice
ctr = ctr + i
print("your current position is", ctr)
#shows positin of player after displacing from previous position
if ctr == 8:
ctr = 37
print("you climbed the ladder from 8 to 37")
#player climbs the ladder
elif ctr == 11:
ctr = 2
print("snake bit you. . :(move down to 2")
#snake bit player at 11 ,comesback to 2
elif ctr == 25:
ctr = 4
print("snake bit you. . :(move down to 4")
#snake bit player at 25, comesback to 4
elif ctr == 13:
ctr = 34
print("you climbed the ladder from 13 to 34")
#player climbed ladder at 13,
elif ctr == 38:
def my roll(): return random.radiant(1,6)
import random
while true:
d=input("press r to roll,q to quit")
if d=='r':
print(random.radiant (1,b))
elif d=='q'
print("bye!")
exit()
print("end!")
#streams of strings
#by Tristan Harvey
import random
import os
os.system('color 0a')
wordlist = ('if', 'class', 'module', 'pygame', 'arcade', 'while', 'list',
'for', 'sprite', 'dunderscore', 'logic', 'conditional', 'IDE',
'tinker', 'break', 'build', 'create')
wordlist.append(input('enter a word'))
while True:
num = random.randint(33, 254)
index = random.radiant(0, len(wordlist) - 1)
print(chr(num) + wordlist[index], end='')
def spectrum():
global graph
global temp
global temp2
global n
num_error = 1
# num_repeated = 1
plik = open('seq.txt')
try:
f = plik.readlines()
first_seq = f[0]
global sequence
sequence = f[1][:-1]
n = len(sequence)
finally:
plik.close()
print(sequence)
comp_sequence = ""
for i in reversed(range(n)):
comp_sequence = comp_sequence + complementary_sign(sequence[i])
print(comp_sequence)
# print(len(comp_sequence))
elem_spectrum = []
w = 0
i = 0
while i <= n:
elem = sequence[w:w+i-w]
# print("elem: " + elem)
# print("temp: " + str(temp_series(elem)))
if temp_series(elem) == temp or temp_series(elem) == temp2:
elem_spectrum.append(elem)
elem = comp_sequence[(len(comp_sequence)-i):(len(comp_sequence)-i)+(len(comp_sequence)-w-(len(comp_sequence)-i))]
# print("elem2: " + elem)
elem_spectrum.append(elem)
i = i + 1
if temp_series(elem) >= temp2:
w = w + 1
i = i - 1
for p in elem_spectrum: print(p)
# print("elem_spectrum : " + str(len(elem_spectrum)))
# print("spectrum2 : " + str(len(spectrum2)))
repeated_times = 0
for i in range(len(elem_spectrum)):
repeated = False
for j in range(len(graph)):
if elem_spectrum[i] == graph[j].start.series:
graph[j].start.min += 1
repeated = True
repeated_times += 1
if repeated == False:
if len(graph) == 0:
tmp_id = 0
else:
# tmp_id = len(spectrum2) + 1
tmp_id = graph[j].start.id + 1
if elem_spectrum[i] == first_seq.strip():
f = 1
else:
f = 0
w = World(Oligonucleotide(tmp_id, elem_spectrum[i], len(elem_spectrum[i]), 1, 0, f))
graph.append(w)
# print(str(repeated_times))
if (repeated_times/len(elem_spectrum)*100) >= -0.5 and (repeated_times/len(elem_spectrum)*100) <= 2.5:
# print("ok")
# ok = False
# choosen = 0
num_error2 = math.floor(len(elem_spectrum)*num_error/100)
global missing
missing = num_error2
for i in range(num_error2):
ok = False
while ok == False:
choosen = random.radiant(0,len(graph))
# print(str(choosen))
if graph[choosen].start.min != 0:
# print(str(choosen))
graph[choosen].start.min -= 1
ok = True
i = 0
# print(first_seq)
while i < len(graph):
"""if spectrum2[i].min == 1:
spectrum2[i].min = 1
spectrum2[i].max = 1
spectrum2[i].max2 = 3
elif spectrum2[i].min == 2 or spectrum2[i].min == 3:
spectrum2[i].min = 2
spectrum2[i].max = 3
spectrum2[i].max2 = 5
elif spectrum2[i].min == 4 or spectrum2[i].min == 5:
spectrum2[i].min = 4
spectrum2[i].max = 5
spectrum2[i].max2 = -1
elif spectrum2[i].min == 0:
del spectrum2[i]
i = i - 1
else:
spectrum2[i].min = -1
spectrum2[i].max = -1
spectrum2[i].max2 = -1"""
if graph[i].start.min == 1 or graph[i].start.min == 2:
graph[i].start.min = 1
graph[i].start.max = 2
graph[i].start.max2 = 4
elif graph[i].start.min == 3 or graph[i].start.min == 4:
graph[i].start.min = 3
graph[i].start.max = 4
graph[i].start.max2 = -1
elif graph[i].start.min == 0:
del graph[i]
i = i - 1
else:
graph[i].start.min = -1
graph[i].start.max = -1
graph[i].start.max2 = -1
i = i + 1
return graph
else:
return False
for p in graph: print(p.start)
#import modul import random print(random.radiant(1, 9)) print(random.randrange(1, 10))
# try until we succeed
while not placed:
orientation = random.choice(orientations)
if orientation == 'leftright':
step_x = 1
step_y = 0
if orientation == 'updown':
step_x = 0
step_y = 1
if orientation == 'diagonalup':
step_x = 1
step_y = 1
if orientation == 'diagonaldown':
step_x = 1
step_y = -1
x_position = random.radiant(0, grid_size)
y_position = random.radiant(0, grid_size)
ending_x = x_position + word_length * step_x
ending_y = y_position + word_length * step_y
if ending_x < 0 or ending_x >= grid_size:
continue
if ending_y < 0 or ending_y >= grid_size:
continue
failed = False
# the first for loop determines whether or not we can realistically place the word here
# if every letter in the word has a free space on the grid (denoted by the underscorees), then we can use this setup
# if it fails that test, we continmue out of this for loop and continue on the bigger while loop ( choose a new orientation)
for i in range(word_length):
character = word[i]
new_position_x = x_position + i * step_x
# -*- coding: utf-8 -*-
"""
Created on Wed Jun 29 20:51:57 2016
@author: pi
"""
import easygui
easygui.msgbox("Hello There!")
import easygui
flavor= easygui.buttonbox("what is your favorite ice cream flavor")
choices= ('Vanilla', 'Chocolate', 'Strawberry')
easygui.msgbox ("You picked"+flavor)
import easygui
flavor= easygui.choicebox("What is your favorite ice cream flavor?")
choices=['Vanilla', 'Chocolate', 'Strawberry']
import easygui
flavor= easygui.enterbox("What is your favorite ice cream flavor",default='chocolate')
import random,easygui
secret= random.radiant(1, 99)
secret= 15
guess= 0
tries= 0
easygui.msgbox("Ahoy, I am the Dread Pirate Roberts, and I have a secret! It is a number from 1 to 99. I'll give you 6 tries")
1*8
;for i in range(1, 5)
print 1 *8
for i in range (5)
for i in range (0,5)
def main():
self.firstName = random.choice(firstName)
self.lasName = random.choice(lastName)
self.Age = random.radiant(14, 18)
firstName =[
"Olivia",
"Cora",
"Isla",
"Charlotte",
"Khaleesi",
"Amelia",
"Isabella",
"Aurora",
"Amara",
"Audrey",
"Penelope",
"Luna",
"Genevieve",
"Imogen",
"Rose",
"Ava",
"Hazel",
"Violet",
"Thea",
"Ophelia",
"Eleanor",
"Arabella",
"Esme",
"Adeline",
"Alice",
"Emilia",
"Ada",
"Maeve",
"Evelyn",
"Aurelia",
"Elizabeth",
"Jane",
"Eloise",
"Stella",
"Lucy",
"Julia",
"Emma",
"Claire",
"Lila",
"Iris",
"Ivy",
"Nora",
"Elise",
"Naomi",
"Astrid",
"Lydia",
"Anna",
"Atticus",
"Harvey",
"Bodhi",
"Asher",
"Jack",
"Milo",
"Jasper",
"Theodore",
"Oliver",
"Henry",
"Silas",
"Oscar",
"Leo",
"Declan",
"Kai",
"Xavier",
"Axel",
"Felix",
"Wyatt",
"Thomas",
"Levi",
"Finn",
"Sebastian",
"Julian",
"Ethan",
"Soren",
"Benjamin",
"Arthur",
"James",
"Caleb",
"Matthew",
"Liam",
"Aryan",
"William",
"Miles",
"Elijah",
"Callum",
"Ryker",
"Ezra",
"Zachary",
"Tobias",
"Alexander",
"John",
"Eli",
"Jude",
"Cassius",
"Harry",
]
lastName = [
"Smith",
"Johnson",
"Williams",
"Jones",
"Brown",
"Davis",
"Miller",
"Wilson",
"Moore",
"Taylor",
"Anderson",
"Thomas",
"Jackson",
"White",
"Harris",
"Martin",
"Thompson",
"Garcia",
"Martinez",
"Robinson",
"Clark",
"Rodriguez",
"Lewis",
"Lee",
"Walker",
"Hall",
"Allen",
"Young",
"Hernandez",
"King',
"Wright",
"Lopez",
"Hill",
"Scott",
"Green",
"Adams",
"Baker",
"Gonzalez",
"Nelson",
"Carter",
"Mitchell",
"Perez",
"Roberts",
"Turner",
"Phillips",
"Campbell",
"Parker",
"Evans",
"Edwards",
"Collins",
]
printHeader()
selection = int(getUserSelection())
if selection == 0:
printStudentsByAge(students)
elif selection == 1:
printStudentsByLastname(students)
elif selection == 2:
printStudentsByFirstname(students)
else:
print ("SELECTION NOT RECOGNIZED")
#import modul import random print(random.radiant(0, 9)) print(random.radiant(1, 10))
WIDTH = 800 #window size HEIGHT = 800 #PLAYER variables PLAYER_NAME = "Zain" # change this to your name! FRIEND1_NAME = "F1" # change this to a friend's name! FRIEND2_NAME = "F2" # change this to another friend's name! current_room = 31 # start room = 31 top_left_x = 100 top_left_y = 150 DEMO_OBJECTS = [images.floor, images.pillar, images.soil] LANDER_SECTOR = random.radiant(1, 24) LANDER_X = random.radiant(2, 11) LANDER_Y = random.radiant(2, 11) ############### ## MAP ## ############### MAP_WIDTH = 5 MAP_HEIGHT = 10 MAP_SIZE = MAP_WIDTH * MAP_HEIGHT GAME_MAP = [ ["Room 0 - where unused objects are kept", 0, 0, False, False] ] outdoor_rooms = range(1, 26) for planetsectors in range(1, 26): #rooms 1 to 25 are generated here
usernamesplit = string.split(parts[1], "!")
username = usernamesplit[0]
#MODT = Message of the day
if MODT:
print username + ": " + message
#Put your commands here
if message == "Hello":
Send_message("Hello " + username + cool)
if message == "How are you?":
mood = random.randint(3,6)
if mood == 3: Send_message("Nice, " + username + smile)
elif mood == 4: Send_message("Fine, " + username + tongue)
elif mood == 5: Send_message("Not bad, " + username + bored)
elif mood == 6: Send_message("OK, " + username + undecided)
if message == "!time":
Send_message(strftime("Now" + "%a, %d %b %Y %H:%M:%S", gmtime())+ "," + username)
if message == "!kappa":
mood = random.radiant(1,3)
if mood == 1: Send_message(classickappa)
elif mood == 2: Send_message(kappalgbt)
elif mood == 3: Send_message(keepo)
for l in parts:
if "End of /NAMES list" in l:
MODT = True
from random import seed
from random import radiant
seed(1)
for i in range(10):
value = radiant(0, 10)
print(value)
print("What is your first name?")
n = input("What is your first name?: ")
print(n)
print("What is your last name?")
v = input("What is your last name?: ")
print(v)
print("Hi there, " + str(n) + " " + str(v) + ", nice to meet you!")
print("\nHow old are you?")
b = int(input("How old are you?: "))
if (b >= 16):
print("" + str(b) + "\n" + str(b) +
" is a good age.\nYou are old enough to drive.")
if (b <= 15):
print("" + str(b) + "\n" + str(b) +
" is a good age.\nYou are not old enough to drive.")
print("\nSo, " + str(n) + ", are you happy or sad today?")
a = input("So, " + str(n) + ", are you happy or sad today?")
if (a == "Happy"):
print("" + str(a) + "\nYou are " + str(a) + ".\nThat is good to hear.")
elif (a == "happy"):
print("" + str(a) + "\nYou are " + str(a) + ".\nThat's great!")
if (a == "Sad"):
print("" + str(a) + "\nYou are " + str(a) + ".\nI'm sorry to hear that.")
type(c)
def printhello(fname,lname):
print("Hello",fname," ",lname," Welcome")
printhello("Anne","Teli")
def totalsale(x,y):
return(x+y)
totalsale()
totalsale(20,30)
import random
x=random.radiant(100,100)
x
L1=[11,12,13,14,15,16,17]
random.choice(L1)
import random
l1=[]
l2=[]
l3=[]
l4=[]
i=0
while(i<4):
l1.append(random.radiant(100,1000))
l2.append(random.radiant(100,1000))
#rock paper sizer
import random
a = {1: 'r', 2: 'p', 3: 's'}
c = a(random.radiant(1, 3))
user_input = input("enter rock paper siser")
print("computer enter c")
if (u == p and u == r or c == s and u == r or c == s and u == s):
print("user won!")
else:
print("sorry you lost")
import random
while True:
d=input("press r to roll,q to quit.")
if d == 'q':
print(random.radiant(1,6))
elif d == 'q':
print("Bye!")
exit()
print("End!")
import random
i = 0
number = random.radiant(1, 11)
while i != 3:
secret_number = int(input("enter any number : "))
if secret_number != number:
print("you guess wrong number.")
else:
print("you guesses it you win.")
break
i += 1
print("You lose.")
