def rot(string):
caesard = {}
capitals = [i for i, char in enumerate(string) if char.isupper()]
for rot in range(26):
lower, modified = string.lower(), ""
newString = []
for char in lower:
newString.append(ascii_lowercase[((ascii_lowercase.index(char) + rot) % len(ascii_lowercase))])
for i in capitals:
char = ascii_lowercase.index(newString[i])
newString[i] = ascii_lowercase[char].upper()
caesard["".join(newString)] = str(26-rot)
return caesard
def decrypt(key, ciphertext):
# decrypt ciphertext using key, by way of a Vigenre cipher
key = key.lower()
ciphertext = ciphertext.lower().replace('\n','').replace(' ','')
out = ''
# print(ciphertext)
for i in range(len(ciphertext)):
# for each symbol in the ciphertext
# get the symbol's index in the alphabet
symbol_index = ascii_lowercase.index(ciphertext[i])
# get the key_symbol
key_symbol = key[i % len(key)]
# get the key_symbol's index in the alphabet
key_symbol_index = ascii_lowercase.index(key_symbol)
# decrypt the cipher symbol and append to out
out += ascii_lowercase[(symbol_index - key_symbol_index + \
len(ascii_lowercase)) % len(ascii_lowercase)]
return out
def _letter_generator(self, current_index, letter, encode=True):
current_key = self.key[current_index % len(self.key)]
if encode:
current_key = (ascii_lowercase.index(current_key) + ascii_lowercase.index(letter)) % 26
else:
current_key = (ascii_lowercase.index(letter) - ascii_lowercase.index(current_key)) % 26
return ascii_lowercase[current_key]
def rot13(message, action="encode"):
"""Write a function called rot13 that uses the Caesar cipher to encrypt a
message. The Caesar cipher works like a substitution cipher but each character
is replaced by the character 13 characters to ‘its right’ in the alphabet.
So for example the letter a becomes the letter n. If a letter is past the
middle of the alphabet then the counting wraps around to the letter a again,
so n becomes a, o becomes b and so on."""
from string import ascii_lowercase as lc
new_message = ""
message = message.lower()
if action == "decode":
for char in message:
if char in lc:
idx = (lc.index(char)-13) % 26
new_message += lc[idx]
else:
new_message += char
return new_message
for char in message:
if char in lc:
idx = (lc.index(char)+13) % 26
new_message += lc[idx]
else:
new_message += char
return new_message
def getIndexFromA(letter, shiftAmount):
'''Returns if the letter's index is in the next alphabet over, or in the
same alphabet, in addition to the index of the relative alphabet cycle.'''
realShift = getRealShift(inputShiftAmount)
letter = letter.lower()
letterIndexFromEnd = 25 - ascii_lowercase.index(letter)
if letterIndexFromEnd < realShift:
shiftedLetterIndex = realShift - (letterIndexFromEnd + 1)
return shiftedLetterIndex
else:
return realShift + ascii_lowercase.index(letter)
def main():
text, new_text, key = "", "", "qwcpwnuht"
with open("krypton5") as f:
text = f.read().lower().rstrip("\n")
for i, c in enumerate(text):
index_of_key = al.index(key[i % len(key)])
new_text += al[(index_of_key + al.index(c)) % 26]
print new_text
def code(self, text, shift_sign):
# pad the end of the key with 'a' (basically no substitution)
self.key = self.key + 'a' * len(text)
# make text lowercase, strip out non letters, convert to list
text = list(re.sub(r'[^a-z]','',text.lower()))
# return result using character substitution based on key
result = ''
for i in range(len(text)):
char_value = letters.index(text[i])
key_shift = shift_sign * letters.index(self.key[i])
result += letters[(char_value + key_shift) % 26]
return result
def main():
reverse_key = []
key = "enc"
string = "rwfwcvttw ufriifyg dws jjbhwooqm ezu iwsh".replace(" ","")
new_string = ""
for i, char in enumerate(string):
key_char = key[ i % len(key) ]
key_char_index = al.index( key_char ) + 1
char_index = al.index( char) + 1
new_index = char_index - key_char_index
reverse_key.append(al[new_index-1])
print "".join(reverse_key)
def decrypt():
rando = []
cipherlist = []
privatep = int(input('Please enter the first private key : '))
privateq = int(input('Please enter the second private key : '))
ciphertext = input('Please enter the ciphertext : ').replace(' ', '')
x = int(input('Please enter the x-value: '))
publickey = privatep * privateq
for i in range(len(ciphertext)):
cipherlist.append(ascii_lowercase.index(ciphertext[i]))
p = pow(x, int((privatep + 1)/4)** (len(ciphertext)-1), privatep) # formula
q = pow(x, int((privateq + 1)/4)** (len(ciphertext)-1), privateq) # formula
initno = (privatep * q * pow(privatep,privateq-2,privateq) + privateq * p * pow(privateq,privatep-2,privatep)) % publickey
for i in range(len(cipherlist)):
if i == 0:
rando.append(initno % publickey)
else:
rando.append((initno ** 2 ** i) % publickey) # xi = x0 ** i mod N
for i in range(len(cipherlist)): # M = (C - x) mod N
cipherlist[i] = ascii_lowercase[(cipherlist[i] - rando[i]) % 26]
print('This is your plaintext : ' + ''.join(cipherlist))
def caeser(sourcetext, offset=None, reverse=False):
# caeser(string) -> string
# offset - integer value for cipher offset
# reverse - bool to reverse the offset (useful for decryption)
# Apply an offset to ascii characters.
# Trivial case, return sourcetext unchanged and avoid
# translating character by character.
if offset == None:
return sourcetext
# reverse flag undoes the cipher offset. This is the same
# as making the offset negative. Conditional merely changes
# the sign of offset. The same effect can be achieved by
# manually adjusting the sign of offset in the caller.
if reverse:
offset = -offset
# build enciphered string character by character
# For each character, if it is an ascii letter apply
# the offset and append the new character to the cipher.
# Otherwise, simply append nonletters to the cipher.
cipher = []
for char in sourcetext:
if char in ascii_letters:
if char in ascii_lowercase:
i = ascii_lowercase.index(char) + offset
i = modulate_index(ascii_lowercase, i)
cipher.append(ascii_lowercase[i])
else:
i = ascii_uppercase.index(char) + offset
i = modulate_index(ascii_uppercase, i)
cipher.append(ascii_uppercase[i])
else: cipher.append(char)
ciphertext = ''.join(cipher)
return ciphertext
def generate_graph(words):
from string import ascii_lowercase as lowercase
G = nx.Graph(name="words")
lookup = dict((c,lowercase.index(c)) for c in lowercase)
def edit_distance_one(word):
word1="".join(sorted(word))
for i in reversed(range(len(word))):
left, c, right = word1[0:i], word1[i], word1[i+1:]
j = lookup[c] # lowercase.index(c)
bound=25
for cc in lowercase[0:bound]:
if (cc !=c):
yield left + cc + right
## candgen = ((word, cand) for word in sorted(words)
## for cand1 in edit_distance_one(word) if ((cand1 in wordsd.values()) and (cand==wordsd.keys()[words.values.index(cand1)]))
candgen=[]
for word in sorted(words):
for cand2 in edit_distance_one(word):
cand1 = ''.join(sorted(cand2))
if (cand1 in wordsd.values()):
cand=wordsd.keys()[wordsd.values().index(cand1)]
candgen.append([word,cand])
G.add_nodes_from(words)
for word, cand in candgen:
G.add_edge(word, cand)
return G
def name_value(name):
result = 0
name = name.lower().strip()
for char in name:
if char != '"':
result += lowercase.index(char)
return result
def generate_graph(words):
from string import ascii_lowercase as lowercase
G = nx.Graph(name="words")
lookup = dict((c,lowercase.index(c)) for c in lowercase)
def edit_distance_one(word):
for i in range(len(word)):
left, c, right = word[0:i], word[i], word[i+1:]
j = lookup[c] # lowercase.index(c)
for cc in lowercase[j+1:]:
# yield left + cc + right
for x in range(6):
if x == 0:
yield cc + left + right
elif x == 1:
yield cc + right + left
elif x == 2:
yield right + cc + left
elif x == 3:
yield left + cc + right
elif x == 4:
yield right + left + cc
else:
yield left + right + cc
candgen = ((word, cand) for word in sorted(words)
for cand in edit_distance_one(word) if cand in words)
G.add_nodes_from(words)
for word, cand in candgen:
G.add_edge(word, cand)
return G
def moving_shift(string, shift):
words = string
lens = len(words)
m, n = divmod(lens, 5)
if n > 0:
m +=1
res = ['', '', '', '' ,'']
chars = -1
for idx, char in enumerate(words):
chars += 1
change=None
if char in ascii_lowercase + ascii_uppercase:
if char in ascii_lowercase:
pos = ascii_lowercase.index(char)
np = (pos + shift + chars) % 26
change = ascii_lowercase[np]
elif char in ascii_uppercase:
pos = ascii_uppercase.index(char)
np = (pos + shift + chars) % 26
change = ascii_uppercase[np]
else:
change = char
res[chars//m] += change
return res
def get_searchTerms():
searchTerm=get_var('previous_searchTerm')
if searchTerm==None:
i=0
else:
i=ascii_lowercase.index(searchTerm)+1
return ascii_lowercase[i:]
def generate_graph(words):
#Import lowercase ASCII characters
from string import ascii_lowercase as lowercase
#Initialize G as Graph from networkx
G = nx.Graph(name="words")
#Dictionary of each char in lowercase mapped to it's index
lookup = dict((c,lowercase.index(c)) for c in lowercase)
def edit_distance_one(word):
for i in range(len(word)):
left, c, right = word[0:i], word[i], word[i+1:]
j = lookup[c] # lowercase.index(c)
dist_one_anagrams = set()
for cc in lowercase:
if cc!=c:
dist_one_anagrams.add(left + cc + right)
for w in dist_one_anagrams:
dist_one_anagrams_2 = {"".join(perm) for perm in itertools.permutations(w)}
dist_one_anagrams = dist_one_anagrams|dist_one_anagrams_2
for w in dist_one_anagrams:
yield w
#Generator for words and their neighbors that exist in input data
candgen = ((word, cand) for word in sorted(words)
for cand in edit_distance_one(word) if cand in words)
#Add each word in words as a node into G
G.add_nodes_from(words)
#Add edge between a word and it's neighbor
for word, cand in candgen:
G.add_edge(word, cand)
#Return generated graph
return G
def generate_graph(words):
from string import ascii_lowercase as lowercase
G = nx.Graph(name="words")
lookup = dict((c,lowercase.index(c)) for c in lowercase)
def edit_distance_two(word):
s_word = ''.join(sorted(word))
for i in range(len(s_word)):
left, c, right = s_word[0:i], s_word[i], s_word[i+1:]
j = lookup[c] # lowercase.index(c)
for cc in lowercase[j+1:]:
yield left + cc + right
G.add_nodes_from(words)
swords=[]
awords=[]
for word in sorted(words):
awords.append(word)
swords.append(''.join(sorted(word)))
for word in awords:
for cand in edit_distance_two(word):
i = 0
for sword in swords:
if cand == sword:
G.add_edge(word, awords[i])
i+=1
return G
def encrypt():
messagelist = []
rando = []
message = input('Please enter your message : ').replace(' ', '').lower()
while not message.isalpha(): # message can only be letters
print('Please input only letters!')
message = input('Please enter your message: ').replace(' ', '').lower()
publickey = int(input('Please enter the public key: '))
for i in range(len(message)): # change letters to respective numbers
messagelist.append(ascii_lowercase.index(message[i]))
seed = randint(100,10000)
while seed ** 4 < publickey: # seed squared > square root of n
seed = randint(100,10000)
if gcd(seed, publickey) != 1: # coprime if gcd = 1
continue
print('Your seed is :', seed)
initno = seed * seed
for i in range(len(messagelist)): # number of int based on length of message
if i == 0:
rando.append(initno % publickey)
else:
rando.append((initno ** 2 ** i) % publickey) # xi = x0 ** i mod N
for i in range(len(messagelist)): # C = (M + x) mod 26
messagelist[i] = ascii_lowercase[(messagelist[i] + rando[i]) % 26]
print('Ciphertext :', ''.join(messagelist))
print('x-value :',rando[len(rando)-1]) # last random int produced
def generate_graph(words,alt):
from string import ascii_lowercase as lowercase
from itertools import permutations
G = nx.Graph(name="words")
lookup = dict((c,lowercase.index(c)) for c in lowercase)
if alt:
def scramble(word):
perms = [''.join(p) for p in permutations(word)]
return set(perms)
def edit_distance_one(word):
for i in range(len(word)):
left, c, right = word[0:i], word[i], word[i+1:]
j = lookup[c] # lowercase.index(c)
for cc in lowercase[j+1:]:
for i in scramble(left + cc + right):
yield i
else:
def edit_distance_one(word):
for i in range(len(word)):
left, c, right = word[0:i], word[i], word[i+1:]
j = lookup[c] # lowercase.index(c)
for cc in lowercase[j+1:]:
yield left + cc + right
candgen = ((word, cand) for word in sorted(words)
for cand in edit_distance_one(word) if cand in words)
G.add_nodes_from(words)
for word, cand in candgen:
G.add_edge(word, cand)
return G
def write_seq(fh, ending_letter):
ending_index = ascii_lowercase.index(ending_letter.lower())
ending_index += 1
for letter in ascii_lowercase[:ending_index]:
fh = add_letter(fh, letter)
return fh
def rotate(message, key):
coded_message = ""
for char in message:
if char in alpha_lower:
char = alpha_lower[(alpha_lower.index(char) + key) % ALPHA_LEN]
elif char in alpha_upper:
char = alpha_upper[(alpha_upper.index(char) + key) % ALPHA_LEN]
coded_message += char
return coded_message
def caeser_cipher(text, key):
encrypted = ''
for i in text:
if i in l:
encrypted += l[(l.index(i) + key) % 26]
elif i in u:
encrypted += u[(u.index(i) + key) % 26]
else:
encrypted += i
return encrypted
def main():
i, j = 10, 0
while True:
if (i + j) % 26 == al.index("s"):
print i, j
break
j += 1
def encryptor(key, message):
key %= 26
result = []
for a in message:
if a.islower():
result.append(low[(low.index(a) + key) % 26])
elif a.isupper():
result.append(up[(up.index(a) + key) % 26])
else:
result.append(a)
return ''.join(result)
def caesar(s, shift):
result = []
for a in s:
if a.isalpha():
if a.islower():
result.append(low[(low.index(a) + shift) % 26])
else:
result.append(up[(up.index(a) + shift) % 26])
else:
result.append(a)
return ''.join(result)
def choose_role(self):
"""Flexible choice prompt for as many roles as the system has"""
roles = [r for r in self.cork.list_roles()]
formatted = ['{0} (level {1})'.format(*r) for r in roles]
condensed = '\n'.join(['{0}.) {1}'.format(*t) for t in zip(alpha, formatted)])
new_role = input('choose: \n{0}\n\n'.format(condensed))
if new_role not in alpha[:len(roles)]:
raise Exception('invalid role choice')
return roles[alpha.index(new_role)][0]
def setlight(where, what):
if not 'coordinate' in where:
# ignore if it is not on the board
return
coord = where['coordinate']
x = ascii_lowercase.index(coord[0])
y = int(coord[1])
note = (y * 16) + x
color = colors[what] if what in colors else 0
message = mido.Message('note_on', note=note, velocity=color)
output.send(message)
def atbash(text, mode):
text = text.lower()
output = ""
for c in text:
if c in abc:
index = abc.index(c)
output += cba[index]
elif c.isdigit():
output += c
else:
pass
return format_output(output, mode)
def rotate(text, degrees):
# Building this dictionary is almost certainly a preoptimization given the
# lengths of the test inputs.
rotate_dict = {}
for l in ascii_lowercase:
rotated_index = (ascii_lowercase.index(l) + degrees) % NUM_LETTERS
rotate_dict[l] = ascii_lowercase[rotated_index]
for l in ascii_uppercase:
rotated_index = (ascii_uppercase.index(l) + degrees) % NUM_LETTERS
rotate_dict[l] = ascii_uppercase[rotated_index]
return sub(r'(.)', lambda l: rotate_dict.get(l.group(1), l.group(1)), text)
def sauce(word):
order = []
for i in word:
order.append(letters.index(i))
if order == sorted(order, key=int):
return "IN ORDER"
if order == sorted(order, key=int, reverse=True):
return "REVERSE ORDER"
else:
return "NOT IN ORDER"
# -*- coding: utf-8 -*-
"""
Created on Tue Mar 12 16:40:13 2019
@author: standl
"""
import itertools as it
from string import ascii_lowercase as lowercase
lookup = dict((c, lowercase.index(c)) for c in lowercase)
def flat(permu):
flatt = []
for i in edit_distance_one("hello"):
for j in i:
flatt.append(''.join(j))
return flatt
def edit_distance_one(word):
for i in range(len(word)):
left, c, right = word[0:i], word[i], word[i + 1:]
j = lookup[c] # lowercase.index(c)
for cc in lowercase[j + 1:]:
yield (it.permutations(left + cc + right, r=None))
#perm = it.permutations("hello", r=None)
Numbers representing letters (n <= 26) will always be separated by letters, for all test cases:
"a26b" may be tested, but not "a262b"
"cjw9k" may be tested, but not "cjw99k"
A list named alphabet is preloaded for you: ['a', 'b', 'c', ...]
A dictionary of letters and their number equivalent is also preloaded for you called
alphabetnums = {'a': '1', 'b': '2', 'c': '3', ...} """
from string import ascii_lowercase as abc
import re
alphabet = list(abc)
alphabetnums = {c: str(abc.index(c)+1) for c in abc}
# def AlphaNum_NumAlpha(string):
# res = ''
# for x in re.findall(r'\d+|\D', string):
# if x.isdigit():
# res += alphabet[int(x)-1]
# else:
# res += str(int(alphabetnums[x])+1)
# return res
def AlphaNum_NumAlpha(string):
return ''.join(alphabet[int(x)-1] if x.isdigit() else str(int(alphabetnums[x])) for x in re.findall(r'\d+|\D', string))
ncaqqahcc ar hmjhgec, cewenhdq lcgc tgd snwpt
sgeh wlsvdr ndc rhcdfa, ync aamg gn xnul wpt"""
# hints: convert to numbers; convert binary to decimal
#cabbage = cycle("cabbage")
#for c in puzzle3:
# print((ord(c)+ ord(next(cabbage))), end='')
#for c in puzzle3:
# try:
# print(int(c, 35))
# except ValueError:
# print(c)
cabbage = cycle([ascii_lowercase.index(c) for c in 'cabbage'])
puzzle3nums = []
for c in puzzle3:
try:
puzzle3nums.append(ascii_lowercase.index(c) + next(cabbage))
except ValueError:
puzzle3nums.append(c)
print(puzzle3nums)
for i in puzzle3nums:
try:
print(ascii_lowercase[i % 26], end='')
except TypeError:
print(i, end='')
print('\n')
puzzle4 = """8813191238677333954665809213349646122194
from string import ascii_lowercase
word = "name"
result = []
a = [
1, 3, 1, 3, 1, 4, 1, 3, 2, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5,
5
]
for i in word:
result.append(a[ascii_lowercase.index(i)])
print(result)
h = max(result)
print(h)
pdf = h * len(word)
print(pdf)
def decrypt(char, nr):
if char == "-":
return " "
return az[(az.index(char) + nr) % 26]
# Set cipher text string
ciphertext = ""
# Set N = 25 i.e n will equal z in the ascii lowercase alphabet where a = 0
# Utilize this when it comes to the formula for substitution [n - index] = new character
n = 25
# Loop through each character. Make lower to avoid exceptions.
for c in plaintext.lower():
# Verify if a space / not an alpha character added. If so, add a space to the ciphertext
if not c.isalpha():
ciphertext += " "
continue
# Use formula of N - (index of c). i.e. when c is a, index will be 0. so n(25)-0 = 25.
# This means our character will be z
ciphertext += ascii_lowercase[n - (ascii_lowercase.index(c))]
print("The cipher text is: ", ciphertext)
print("\nTo reverse, simply repeat: ")
plaintext = ""
for x in ciphertext:
if not x.isalpha():
plaintext += " "
continue
plaintext += ascii_lowercase[n - (ascii_lowercase.index(x))]
print("The deciphered text is: ", plaintext)
def to_encrypt(text, delta):
return ''.join([
ascii[(ascii.index(char) + delta) %
len(ascii)] if char in ascii else char for char in text
])
def handle_call(self, item, first_line, market=None):
"Handles a judge calling a market."
option_label, market_id = "", ""
for word in first_line[1:]:
word = word.lower()
if len(word
) == 1 and word in ascii_lowercase: # determines the label
option_label = word
elif word.startswith("#") and len(word) > 1 and word[1:].isdigit():
market_id = int(word[1:]) # determines the market id
if not option_label: raise Exception("Option not specified")
for m in self.mp.markets:
if m.id == market_id:
market = m
if not market:
raise Exception("Market not specified or inferred.")
if not market.is_open:
raise Exception("Market is closed.")
try:
requested_stock = market.stocks[ascii_lowercase.index(
option_label)]
except IndexError:
raise Exception("Invalid option")
if item.author.name in market.category.judges:
market.call(requested_stock)
self.changed_markets.add(market)
# Just finding all the players who bought into this market
players = {}
for option in market.stocks:
for name in option.shares.keys():
num_stocks = option.shares[name]["amount"]
if name not in players.keys():
players[name] = []
if num_stocks > 0:
players[name].append(option)
# Send each player a message about their wins/loses in this market
have_won = False
for player, options in players.items():
message = "|Market ID|Option|Amount|Win/Lost|\n"
message += "|:-- |:-- | :-: | :-: |\n"
for o in options:
if not name in o.shares: continue
message += "|{}|{}|{}|{}|\n".format(
o.market.id, o.text, o.shares[name]["amount"],
"Win" if o is requested_stock else "Lose")
message += "\n\n"
after = self.mp.bank[name]
#TODO: keyerror if no shares
if not name in requested_stock.shares:
continue
before = self.mp.bank[
name] - requested_stock.shares[name]["amount"] * 100
difference = requested_stock.shares[name]["amount"]
bank_table = "|Player|Bank Before|Bank After|Difference|\n"
bank_table += "|:-- | --:| --:| :-: |\n"
bank_table += "|{} |{:.2f} |{:.2f} |{:.2f} |\n\n".format(
name, before, after, difference)
message += bank_table
redditor = self.reddit.redditor(name)
redditor.message(
"Market #{} has been settled.".format(market.id), message)
logging.info("{} called {} for {}".format(item.author.name,
market.id, option_label))
self.change_comments(market, True)
del self.updanda_dict[market]
def alphabet_position(text):
ans = []
for word in text.lower():
if word in ascii_lowercase:
ans.append(ascii_lowercase.index(word) + 1)
return ' '.join(map(str, ans))
def encode(s, k):
l = [lc.index(i) for i in s.lower() if i.isalpha()
] #Creates a list of indices of all letters in the input string
return ''.join([
uc[(i + k) % 26] for i in l if not str(i).isspace()
]) #Joins the string formed by shifting all the indices by key
def get_index(char):
try:
return ascii_lowercase.index(char)
except:
return 26
def _get_key_idx(self, idx):
"Returns a upper or lower case caracter index corresponding to the input caracter position in the key word"
c = self.key[idx % len(self.key)]
return abc.index(c) if c in abc else ABC.index(c)
def get_coefficient(self, character):
index = ascii_lowercase.index(character)
if not self.acceding:
return self.TOTAL_NUMBER_ALPHABET - index - 1
return index
def handle_buy(self, item, first_line, market=None):
"Handles a player buying a share in a market."
option_label, amount_label, market_id = "", "1", ""
command = first_line[0].lower().strip(".!,?")
# Quickly parse through the arguments given.
for word in first_line[1:]:
word = word.lower()
if len(word) == 1 and word.lower(
) in ascii_lowercase: # finds the chosen option
option_label = word.lower()
elif (word.startswith("$") and word[1:].isdigit()
) or word.isdigit(): # finds the amount to buy
amount_label = word
#TODO: what if no "sell"?
elif word == "all" and command == "sell":
amount_label = "all"
elif word.startswith("#"): # finds the id for the market
market_id = int(word[1:])
if not option_label: raise Exception("No option specified.")
# we find which market it is...
if market_id:
for m in self.mp.markets:
if m.id == market_id:
market = m
if not market: raise Exception("Market not specified or inferred.")
if not market.is_open:
raise Exception("Market is closed")
requested_stock = market.stocks[ascii_lowercase.index(option_label)]
name = item.author.name
if amount_label.startswith("$"):
amount = int(amount_label[1:])
if command == "sell":
amount *= -1
amount_of_shares = self.get_amount_from_money(
command, amount, item, market, requested_stock)
elif amount_label == "all":
amount_of_shares = -1 * requested_stock.shares[name]["amount"]
else:
amount_of_shares = int(amount_label)
if command == "sell": amount_of_shares *= -1
self.mp.create_new_player(name, 20000)
before = self.mp.bank[name]
requested_stock.buy(name, amount_of_shares)
self.changed_markets.add(market)
logging.info("{} bought {} shares of {}:{}".format(
name, amount_of_shares, market.id, option_label))
self.message_player_bought_shares(item.author, before, requested_stock,
amount_of_shares)
# If this was a comment, potentially make a new comment reply and watch it.
if type(item) is praw.models.reddit.comment.Comment:
if not self.check_if_submission_watched(item, market):
updandum = item.reply(
self.create_market_view(
market,
submission=self.updanda_dict[market]["submission"],
viewtype="comment") + self.footer)
self.add_updandum(updandum, market)
def turn(self):
current_index = alphabet.index(self.current_position)
self.setCurrentPosition(alphabet[(current_index + 1) % 26])
def parse_bomb_location(loc):
loc = loc.lower().strip().replace(" ", "")
row = ascii_lowercase.index(loc[0])
col = digits.index(loc[1])
return col, row
# ascii value find:
>>> ord('a')
97
>>> chr(97)
'a'
>>> chr(ord('a') + 3)
'd'
>>>
small_alph = 'abcdefghijklmnopqrstuvwxyz'
capital_alph = 'ABCDEFGHIJKLMNOPQRSTUVWXYZ'
for letter in message:
if letter.lower() in ascii_lowercase:
if letter.islower():
pos = ascii_lowercase.index(letter)
encoded_message += ascii_lowercase[(pos + shift) % 26]
else:
pos = ascii_uppercase.index(letter)
encoded_message += ascii_uppercase[(pos + shift) % 26]
# finding common prefix
def common_start(sa, sb):
""" returns the longest common substring from the beginning of sa and sb """
def _iter():
for a, b in zip(sa, sb):
def dec(ch):
if ch.isdigit():
return ch
return ascii_lowercase[a * (ascii_lowercase.index(ch) - b) % 26]
def read_position(self, target):
from string import ascii_lowercase as lett
lett = lett[:10]
target = target.lower()
return lett.index(target[0]) + 1, int(target[1:])
def is_real(data):
freq = Counter(data[0]).most_common()
s = sorted(freq,
reverse=True,
key=lambda x: (x[1], 25 - ascii_lowercase.index(x[0])))
return data[2] == "".join(x[0] for x in s[:5])
def f_score(word):
score = 0
for letter in word:
score += (ascii_lowercase.index(letter) + 1)
return score
def to_pos(coord):
horiz_index = ascii_lowercase.index(coord[0])
vert_index = int(coord[1]) - 1
return (horiz_index, vert_index)
def enc(ch):
if ch.isdigit():
return ch
if not ch.isalnum():
return ""
return ascii_lowercase[(a * ascii_lowercase.index(ch) + b) % 26]
def Keyboard(self, key):
for letter in ascii_lowercase:
if key == eval("Keys.K_" + letter):
self.alphabet[ascii_lowercase.index(letter)] = True
def words_to_marks(s):
return sum([ascii_lowercase.index(i) + 1 for i in s])
def from_chars(cls, chars):
positions = [letters.index(char) for char in chars]
return cls(positions)
def string_to_num(string):
from string import ascii_lowercase as alpha
return sum([alpha.index(x) + 1 for x in string])
def cake(candles, debris):
if not candles:
return "That was close!"
score = sum(ord(c) if i % 2 == 0 else ascii_lowercase.index(c) + 1 for i, c in enumerate(debris))
return "Fire!" if score > 0.7 * candles else "That was close!"
from string import ascii_lowercase as alpha
nameValue = lambda name: sum([alpha.index(l) + 1 for l in name.lower()])
totalValue = lambda names: sum([(nameValue(name) * (i + 1))
for i, name in enumerate(names)])
def extractNames(file_location, mode='r'):
try:
names = ''
with open(file_location, mode) as file:
names = [name.strip('"') for name in file.readline().split(',')]
names.sort()
except FileNotFoundError:
print(f'No se pudo abrir el archivo {file_location}')
except:
print('Ocurrio un error inesperado')
return names
def __main__():
archivo = 'names.txt'
names = extractNames(archivo)
if names != '':
names_score = totalValue(names)
print(f'El valor total de los nombres es {names_score}')
else:
print('Verifique la existencia del archivo e intente de nuevo.')
def alphabet_position(letter):
assert len(letter) == 1, 'Only give me one letter please'
return lowers.index(letter.lower())
