main.py

@@ -71,19 +71,19 @@ class TreasureCard:
       self.state = -1 # effectively disable treasure card
 
 
-class ConcessionCard:
+class ConcessionCard: # name may be different in English
   # Each card contains:
   # 6 cities to connect to the player's concession. There is no need to implement those.
-  # 7 gold nuggets, as rewards when the player succefully connects a city to their concession. The player can choose
+  # 7 gold "pepites", as rewards when the player succefully connects a city to their concession. The player can choose
-  # which nugget to earn, and then discovers the associated reward (between 11 and 17 coins).
+  # which "pepite" to earn, and then discovers the associated reward (between 11 and 17 coins).
-  # A ConcessionCard is then composed of 7 nuggets, with the rewards randomly distributed.
+  # A ConcessionCard is then composed of 7 pepites, with the rewards randomly distributed.
   def __init__(self):
     availableValues = [11, 12, 13, 14, 15, 16, 17]
-    nuggetsNb = len(availableValues) - 1
+    pepitesNb = len(availableValues) - 1
-    self.nuggets = []
+    self.pepites = []
     for n in range(0, 7):
-      choice = random.randint(0, nuggetsNb - n)
+      choice = random.randint(0, pepitesNb - n)
-      self.nuggets.append(availableValues[choice])
+      self.pepites.append(availableValues[choice])
       availableValues.pop(choice)
     self.taken = set()
 
@@ -95,7 +95,7 @@ class ConcessionCard:
       print(str(choice) + " has already been obtained.")
       return False
     self.taken.add(choice)
-    print("Congrats! You obtained $" + str(self.nuggets[choice]))
+    print("Congrats! You obtained $" + str(self.pepites[choice]))
 
 class Player:
 
@@ -123,7 +123,6 @@ class Game:
       self.players.append(Player(color))
 
   def printStatus(self):
-    print("")
     print("Ticket to Ride Legacy: Legends of the West")
     print("")
     print("Campaign - Year: " + str(self.year))
@@ -132,7 +131,7 @@ class Game:
     for player in self.players:
       print("  " + player.color)
       if self.concession:
-        print("     Concession card remaining nuggets: " + str(player.concession.getRemainingPepites()))
+        print("     Concession card remaining pepites: " + str(player.concession.getRemainingPepites()))
     print("")
     if self.circus.state > 0:
       print("Circus next sticker color: " + self.circus.getNextColor())
@@ -167,13 +166,13 @@ playersNb = 2
 # Test of ConcessionCard
 # cc = ConcessionCard()
 # userChoice = 3
-# print(cc.nuggets)
+# print(cc.pepites)
 # cc.takeReward(userChoice - 1)
-# print(cc.nuggets)
+# print(cc.pepites)
 # print(cc.taken)
 # print("Remaining: " + str(cc.getRemainingPepites()))
 # cc.takeReward(userChoice - 1)
-# print(cc.nuggets)
+# print(cc.pepites)
 # print(cc.taken)
 # print("Remaining: " + str(cc.getRemainingPepites()))
 

src/moc-tracking.py

@@ -1,110 +0,0 @@
-import random
-
-class City:
-
-  def __init__(self, name, neighbors):
-    self.name = name
-    self.neighbors = neighbors
-
-  # Returns the length of the shortest way between the city and another one (target)
-  def distance(self, target):
-    if self == target:
-      return 0
-
-    dist = 1
-    cities = [self]
-
-    for city in cities:
-      for neighbor in city.neighbors:
-        depth = 1
-        if target in city.neighbors:
-          return dist
-
-class Board:
-
-  def __init__(self):
-    self.cities = []
-
-    # NorthEast
-    neighbors = "Quebec", "Montreal", "Boston"
-    self.cities.append(City("Bangor", neighbors))
-    neighbors = "Bangor", "Montreal"
-    self.cities.append(City("Quebec", neighbors))
-    neighbors = "Quebec", "Bangor", "Boston", "Albany", "Buffalo"
-    self.cities.append(City("Montreal", neighbors))
-    neighbors = "Bangor", "Montreal", "Albany", "New York"
-    self.cities.append(City("Boston", neighbors))
-    neighbors = "Buffalo", "Montreal", "Boston", "New York"
-    self.cities.append(City("Albany", neighbors))
-    neighbors = "Detroit", "Montreal", "Albany", "New York", "Philadelphia", "Pittsburgh"
-    self.cities.append(City("Buffalo", neighbors))
-    neighbors = "Buffalo", "Albany", "Boston", "Philadelphia"
-    self.cities.append(City("New York", neighbors))
-    neighbors = "Buffalo", "New York", "Norfolk", "Baltimore", "Pittsburgh"
-    self.cities.append(City("Philadelphia", neighbors))
-
-  def getCityByName(self, name):
-    for city in self.cities:
-      if city.name == name:
-        return city
-    return 0
-
-
-class MamaOConnel:
-
-  def __init__(self):
-    self.board = Board() # TODO Board should be a "static" or "constant" class, see what we can do
-    self.location = self.board.cities[random.randint(0, len(self.board.cities) - 1)]
-    # We need at least 3 accesses to the city, to provide hints through different axes (but even cities with 3 accesses
-    # can generate a triangle (like Bangor or Tampa), hence the need for 4 accesses)
-    # It could be more proper to have a dedicated method to check if a city can be the location (using distance?)
-    while len(self.location.neighbors) < 4:
-      self.location = self.board.cities[random.randint(0, len(self.board.cities) - 1)]
-
-    # # Set first hint
-    # hint1distance = 3
-    # hint1list = []
-    # hint1list.append(self.location.neighbors[random.randint(0, len(self.location.neighbors))])
-    # for i in range(0, hint1distance - 2):
-    #   tmp = hint1list[i].neighbors[random.randint(0, len(hint1list[i].neighbors))]
-    #   while tmp.distance(self.location) < i + 1:
-    #     tmp = hint1list[i].neighbors[random.randint(0, len(hint1list[i].neighbors))]
-    #   hint1list.append(tmp)
-    # self.hint1 = hint1list[hint1distance - 1]
-    #
-    # # Set second hint
-    # hint2distance = 3
-    # hint2list = []
-    # tmp = self.location.neighbors[random.randint(0, len(self.location.neighbors))]
-    # while tmp == hint1list[0]:
-    #   tmp = self.location.neighbors[random.randint(0, len(self.location.neighbors))]
-    # hint2list.append(tmp)
-    # for i in range(0, hint2distance - 2):
-    #   tmp = hint2list[i].neighbors[random.randint(0, len(hint2list[i].neighbors))]
-    #   while tmp.distance(self.location) < i + 1 or tmp == hint1list[i + 1]:
-    #     tmp = hint2list[i].neighbors[random.randint(0, len(hint2list[i].neighbors))]
-    #   hint2list.append(tmp)
-    # self.hint2 = hint2list[hint2distance - 1]
-
-    hints = [], [], []
-    hintsDistance = 3, 3, 2
-    for h in range(0, 2):
-      city = self.board.getCityByName(self.location.neighbors[random.randint(0, len(self.location.neighbors) - 1)])
-      if h == 1:
-        while city in hints[0]:
-          city = self.board.getCityByName(self.location.neighbors[random.randint(0, len(self.location.neighbors) - 1)])
-      if h == 2:
-        while city in hints[0] or city in hints[1]:
-          city = self.board.getCityByName(self.location.neighbors[random.randint(0, len(self.location.neighbors) - 1)])
-      hints[h].append(city)
-      for i in range(0, hintsDistance[h] - 2):
-        city = self.board.getCityByName(hints[h][i].neighbors[random.randint(0, len(hints[h][i].neighbors) - 1)])
-        while city.distance(self.location) < i + 1 or h >= 1 and city in hints[0] or h == 2 and city in hints[1]:
-          city = self.board.getCityByName(hints[h][i].neighbors[random.randint(0, len(hints[h][i].neighbors) - 1)])
-        hints[h].append(city)
-    print(self.location)
-    print(hints)
-
-  # at the end of generation, board and cities should be dropped (no use to keep them in saved data)
-
-myMama = MamaOConnel()