def draw_map():
"""
Draw map on console from 2 dimensional list
"""
utilities.clear_console()
# draw maze
for Y in range(len(variables.game_map)):
for X in range(len(variables.game_map[Y])):
if (Y == variables.character_position["Y"]
and X == variables.character_position["X"]):
# this is character position, draw it
print(variables.character_symbol, end="")
else:
# no character here, draw maze
print(variables.map_elements[variables.game_map[Y][X]]["Icon"],
end="")
print()
# show message if any
if variables.game_message != "":
print(variables.game_message)
variables.game_message = ""
else:
print()
# show game data
print(
f"Nombre d'actions effectuées : {variables.character_total_actions} (dont {variables.character_bad_actions} mauvaises)\n"
)
def launch_fizz_buzz():
utilities.clear_console()
# Fizz-Buzz display logo et rules
visuals.fizz_buzz_logo()
languages.fizz_buzz_rules()
fizz_buzz_victory = False
b = 15
z1 = b % 5
if z1 == 0:
print("Fizz")
#print(z1)
z2 = b % 3
if z2 == 0:
print("Buzz")
#print(z2)
if z1 == 0 and z2 == 0:
print("Fizz Buzz")
def launch_sphynx():
utilities.clear_console()
sphynx_victory = False
# Sphynx display logo et rules
visuals.sphynx_logo()
languages.sphynx_rules()
languages.sphynx_question()
print("Tu peux répondre par 'Oui' ou 'Non':")
user_answer = str(input())
# not user_answer.isalpha() and user_answer != "Oui" or not user_answer.isalpha() and user_answer != "Non" :
a = 1
while (a) :
if user_answer == "Oui":
a = 0
right_number = 0
def find_number(counter):
# The sphynx calculate a random number
sphynx_number = random.randint(0, 100)
# Ask user a number
for repeat_ask in range(20):
print("Veux-tu bien rentrer un nombre entre 1 et 100 ?")
user_number = int(input())
# Compare the sphynx_number and user_number
if sphynx_number > user_number:
print("Le nombre que j'ai en tête est plus grand")
elif sphynx_number < user_number:
print("Le nombre que j'ai en tête est plus petit")
else:
print("Tu as trouvé le bon nombre, serais-tu devin ?")
counter += 1
return counter
while right_number < 3 :
right_number = find_number(right_number)
elif user_answer == "Non":
a = 0
break
else:
print("Tu dois répondre par 'Oui' ou 'Non'")
user_answer = str(input())
# The player as won the bronze key, first challenge
print("Tu as gagné ce défi, tu obtiens donc la clef de Bronze")
def show_title_and_rules():
"""
Prints title ans rules
"""
utilities.clear_console()
visuals.game_logo()
print("\n")
print("Pour te déplacer, tu as ces touches :")
print("Z (Haut), S (Bas), Q (Gauche), D (Droite) ou C (Quitter)\n")
def launch_caesar():
utilities.clear_console()
# Caesar display logo et rules
visuals.caesar_logo()
languages.caesar_rules()
caesar_victory = False
# Part of Python zen
zen_python = "Beautiful is better than ugly. Explicit is better than implicit. Simple is better than complex."
print(zen_python)
# Length of an object, here zen_python
zen_length = len(zen_python)
char_list = []
encryption_key = 3
# Loop to encrypt message
for char in range(zen_length):
# If the character is alphabetical
if zen_python[char].isalpha():
# Value in the ASCII table of each character
tmp = ord(zen_python[char])
# Add encryption key to the value of ASCII table
tmp_encrypted = tmp + encryption_key
# Verify if value of character exit the alphabetical part of ASCII table and loop at beginning (example: z + 3 = c)
if (tmp_encrypted) > 122:
tmp_encrypted -= 26
# Add characters to list
char_list.append(chr(tmp_encrypted))
# When character isn't alpha, put it like that in the list
else:
char_list.append(zen_python[char])
#print(d)
# Recreate sentence in an encrypted version
result = ''.join(char_list)
print(result)