Merge branch 'main' of https://github.com/Eclairsombre/GDMC-2024

.gitignore

@@ -157,4 +157,4 @@ cython_debug/
 #  be found at https://github.com/github/gitignore/blob/main/Global/JetBrains.gitignore
 #  and can be added to the global gitignore or merged into this file.  For a more nuclear
 #  option (not recommended) you can uncomment the following to ignore the entire idea folder.
-#.idea/
+.idea/

buildings/Building.py

@@ -0,0 +1,43 @@
+import random as rd
+from utils.Enums import DIRECTION
+from gdpc import Editor, Block, geometry
+from buildings.Foundations import Foundations
+from buildings.Facade import Facade
+from buildings.Entrance import Entrance
+from buildings.Roof import Roof
+
+class Building:
+    def __init__(self,rdata, position : tuple[int,int], size : tuple[int, int], matrice : list[list[int]], floors : int):
+        self.position = position
+        self.length, self.width = size
+        self.matrice = matrice
+        self.floors = floors
+        
+        # Generate every random components here
+        tile_size = self.gen_tile_size()
+        
+        self.foundations = Foundations(rdata["foundations"], size, matrice, tile_size,)
+        self.facade = Facade(rdata["facade"], self.foundations.vertices, self.foundations.is_inner_or_outer)
+        self.entrance = Entrance(rdata, self.foundations.vertices, DIRECTION.EAST, self.foundations.is_inner_or_outer)
+        self.roof = Roof(rdata["roof"], self.foundations.polygon)
+        
+    def build(self, editor : Editor, materials : list[str]):
+        for y in range(self.floors+1):      
+            with editor.pushTransform((self.position[0], y*(self.foundations.floor_height+1) -1, self.position[1])):
+                if y == self.floors: 
+                    self.roof.build(editor, materials)
+                    break
+                self.foundations.build(editor, materials)
+                if y == 0: self.entrance.build(editor, materials)
+                else : self.facade.build(editor, materials)
+        
+    def gen_tile_size(self) -> int:
+        # Tiles are constant square units different for each buildings
+        smaller_side = min(self.length, self.width)
+        
+        # area is too small, will work but not very well
+        if smaller_side <= 5 : return smaller_side
+        if smaller_side <= 15 : return smaller_side // 5
+        
+        return rd.randint(3, smaller_side // len(self.matrice))
+    

buildings/Entrance.py

@@ -0,0 +1,114 @@
+import random as rd
+from gdpc import Editor, Block, geometry
+from utils.Enums import DIRECTION,COLLUMN_STYLE
+from buildings.geometry.Vertice import Vertice
+from buildings.Facade import Facade
+
+class Entrance:
+    def __init__(self, 
+                 rdata, 
+                 vertices : list[Vertice], 
+                 direction : DIRECTION, 
+                 collumn_style : COLLUMN_STYLE):
+        self.vertices = self.correct_vertices(vertices)
+        self.direction = direction
+        self.rdata = rdata
+        self.collumn_style = collumn_style
+        self.is_centered = self.is_centered()
+        self.door_vertice, self.facade = self.get_door_and_facade()
+        self.door_width, self.door_height, self.padding, self.ypadding = self.get_door_dimention()
+        self.editor, self.materials = None,None
+        
+    def build(self, editor : Editor, materials : list[str]):
+        self.editor = editor
+        self.materials = materials
+        self.correct_facade()
+        with self.editor.pushTransform((0,1,0)):
+            self.facade.build(self.editor, self.materials)
+            self.build_door()
+        
+    def build_door(self):
+        # self.padding is the padding from the door to the facade, padding is the padding from the door+self.padding to the end of the vertice
+        padding = (len(self.door_vertice) - (self.padding*2 + self.door_width // 2)) // 2
+        self.door_vertice.fill(self.editor, self.materials[0], 
+                               y = self.door_height+self.ypadding, 
+                               xpadding = padding, 
+                               zpadding = padding)
+        # padding is now the padding from the door to the end of the vertice
+        padding += self.padding
+        self.door_vertice.fill(self.editor, "air",
+                               y = self.door_height,
+                               xpadding = padding,
+                               zpadding = padding)
+        
+    def correct_facade(self):
+        self.facade.has_balcony = False
+        
+    def correct_vertices(self, vertices : list[Vertice]) -> list[Vertice]:
+        for v in vertices:
+            v.point2.set_position(y=v.point2.y-1)
+        return vertices
+        
+    def is_centered(self) -> bool:
+        return rd.random() <= self.rdata["entrance"]["centered"]
+    
+    def get_door_and_facade(self) -> tuple[Vertice, Facade]:
+        oriented_vertices = self.get_oriented_vertices()
+        door_vertice = None
+        
+        if self.is_centered:
+            oriented_vertices.sort(key = lambda v: v.point1.x if self.direction.value % 2 == 0 else v.point1.z) # if direction is north or south, sort by x, else sort by z
+            mid = len(oriented_vertices) // 2
+            ver1, ver2 = oriented_vertices[mid], oriented_vertices[-mid-1]
+            
+            if ver1.point1.x != ver2.point1.x and ver1.point1.z != ver2.point1.z:
+                door_vertice = rd.choice([ver1, ver2])
+            elif ver1.point1.position == ver2.point1.position:
+                door_vertice = ver1
+            else : 
+                door_vertice =  Vertice(ver2.point1.copy(), ver1.point2.copy())
+            
+        else: 
+            door_vertice = rd.choice(oriented_vertices)
+        
+        facade = Facade(self.rdata["facade"], self.vertices, self.collumn_style)
+        return(door_vertice, facade)
+        
+    def get_oriented_vertices(self) -> list[Vertice]:
+        # Get all the vertice that can contain the door
+        
+        # if direction is north or south, compare by x, else compare by z
+        compare  = lambda v: (v.point1.z,v.point1.x) if self.direction.value % 2 == 0 else (v.point1.x,v.point1.z) 
+        # if direction is north or west, the most off_centered is the maximum, else it is the minimum
+        off_centered = lambda p1,p2: max(p1,p2) if self.direction == DIRECTION.NORTH or self.direction == DIRECTION.WEST else min(p1,p2) 
+        
+        oriented_vertices = []
+        for v in self.vertices:
+            if v.facing != self.direction: continue
+            sortby,position = compare(v)
+            alreadyset = False
+            for ov in oriented_vertices:
+                ov_sorted, ov_position = compare(ov)
+                if position == ov_position:
+                    if off_centered(sortby,ov_sorted) == sortby: oriented_vertices.remove(ov)
+                    else: alreadyset = True
+            if not alreadyset: oriented_vertices.append(v)
+                    
+        return oriented_vertices
+    
+    def get_door_dimention(self) -> tuple[int,int,int,int]: # return width, height, padding, ypadding
+        max_width = len(self.door_vertice) - 2
+        max_height = self.door_vertice.get_height() - 1
+        
+        door_width = rd.randint(self.rdata["entrance"]["door"]["size"]["min_width"], self.rdata["entrance"]["door"]["size"]["max_width"])
+        door_height = rd.randint(self.rdata["entrance"]["door"]["size"]["min_height"], self.rdata["entrance"]["door"]["size"]["max_height"])
+        xpadding = rd.randint(1, self.rdata["entrance"]["door"]["padding"]["max"])
+        ypadding = rd.randint(1, self.rdata["entrance"]["door"]["padding"]["max_top"])
+        
+        if door_width > max_width: door_width = max_width
+        if door_height > max_height: door_height = max_height
+        if xpadding*2 + door_width > max_width: xpadding += (max_width - (xpadding*2 + door_width)-1)//2
+        if ypadding + door_height > max_height: ypadding += max_height - (ypadding + door_height)
+        
+        return door_width,door_height,xpadding,ypadding
+        

buildings/Facade.py

@@ -0,0 +1,89 @@
+import random as rd
+from utils.functions import *
+from utils.Enums import COLLUMN_STYLE,DIRECTION,INTER_FLOOR_BORDER
+from gdpc import Editor, Block, geometry, Transform
+from buildings.geometry.Vertice import Vertice
+from buildings.geometry.Point import Point
+from buildings.elements.Window import Window
+from buildings.elements.Balcony import Balcony
+
+class Facade:
+    def __init__(self, 
+                 rdata, 
+                 vertices : list[Vertice], 
+                 collumn_style : COLLUMN_STYLE):
+        self.rdata = rdata
+        self.vertices = vertices
+        self.collumn_style = collumn_style
+        self.height, self.length = self.get_dimentions()
+        self.padding = 0
+        self.window =  self.get_window()
+        self.has_balcony = self.has_balcony()
+        self.balcony = self.get_balcony()
+        self.has_inter_floor, self.inter_floor_border_style = self.has_inter_floor()
+        self.editor, self.materials = None,None
+        
+    def build(self, editor : Editor, materials : list[str]):  
+        self.editor = editor
+        self.materials = materials
+        points = sum([[vertice.point1, vertice.point2] for vertice in self.vertices], [])
+                  
+        for vertice in self.vertices:
+            flip=(vertice.facing == DIRECTION.WEST or vertice.facing == DIRECTION.SOUTH, False, False)
+            vertice.fill(editor, materials[0], self.height, xpadding = self.padding, zpadding = self.padding)
+            with editor.pushTransform(Transform(vertice.point1.position,rotation = vertice.facing.value, flip = flip)):
+                self.window.build(editor, materials)
+                if self.has_inter_floor: self.build_inter_floor()
+                if self.has_balcony: self.balcony.build(editor, materials)
+                self.correct_corners(points,vertice)
+                
+    def correct_corners(self,points : list[Point], v : Vertice):
+        if self.padding == 0:
+            if self.window.border_radius != 0 and self.window.width == self.length:
+                if points.count(v.point1) >= 2:
+                    self.editor.placeBlock((0,self.window.ypadding,0), Block(self.materials[8]))
+                    self.editor.placeBlock((0,self.window.ypadding+self.window.height,0), Block(self.materials[8], {"type": "top"}))
+                if points.count(v.point2) >= 2:
+                    self.editor.placeBlock((self.length-1,self.window.ypadding,0), Block(self.materials[8]))
+                    self.editor.placeBlock((self.length-1,self.window.ypadding+self.window.height,0), Block(self.materials[8], {"type": "top"}))
+            
+            if self.has_inter_floor:
+                material = Block("air")
+                if self.inter_floor_border_style == INTER_FLOOR_BORDER.SLAB:
+                    material = Block(self.materials[8], {"type": "top"})
+                elif self.inter_floor_border_style == INTER_FLOOR_BORDER.STAIRS:
+                    material = Block(self.materials[4], {"facing": "south", "half": "top"})
+                    
+                if points.count(v.point1) >= 2:
+                    self.editor.placeBlock((-1,self.height,-1), material)
+                if points.count(v.point2) >= 2:
+                    self.editor.placeBlock((self.length,self.height,-1), material)
+                     
+        
+    def get_window(self) -> Window:
+        if self.collumn_style.value >= 2: # collumn_style >= 2 = outer collumns
+            self.padding = 1
+            
+        max_width = self.length-2*self.padding
+        max_height = min(self.height, self.rdata["windows"]["size"]["max_height"])
+            
+        return Window(self.rdata["windows"] ,max_width, max_height, self.length, self.height)
+    
+    def get_balcony(self) -> Balcony|None:
+        if not self.has_balcony: return None
+        max_width = self.length-2*self.padding
+        return Balcony(self.rdata["balcony"], max_width, self.window, self.collumn_style)
+    
+    def build_inter_floor(self):
+        geometry.placeCuboid(self.editor,(self.padding,self.height,0),(self.length-1-self.padding,self.height,0),Block(self.materials[0])) 
+        geometry.placeCuboid(self.editor,(self.padding,self.height,-1),(self.length-1-self.padding,self.height,-1),Block(self.materials[4], {"facing": "south", "half": "top"})) 
+
+    def has_balcony(self) -> bool:
+        return self.rdata["balcony"]["proba"] >= rd.random()
+    
+    def has_inter_floor(self) -> bool:
+        return (self.rdata["inter_floor"]["proba"] >= rd.random(), select_random(self.rdata["inter_floor"]["border_style"], INTER_FLOOR_BORDER))
+    
+    def get_dimentions(self) -> tuple[int,int]:
+        return ( self.vertices[0].get_height(), len(self.vertices[0]))
+    

buildings/Foundations.py

@@ -0,0 +1,150 @@
+import random as rd
+import numpy as np
+import math
+
+from utils.Enums import COLLUMN_STYLE
+from utils.functions import *
+from buildings.geometry.Tile import Tile
+from buildings.geometry.Polygon import Polygon
+from buildings.geometry.Point import Point
+from buildings.elements.Collumn import Collumn
+
+class Foundations:
+    # TODO : gérer les collones sur les tiles trop petites et les colones 1tile/2
+    
+    def __init__(self,
+                 rdata,
+                 size : tuple[int, int], 
+                 matrice : list[list[int]], 
+                 tile_size : int):
+        # Foundations are the base of the building, they are made of tiles and based on a matrice
+        
+        # Random components
+        self.tile_size = tile_size
+        self.is_inner_or_outer = select_random(rdata["collumn_style"], COLLUMN_STYLE)
+        self.floor_height = rd.randint(rdata["floor"]["min_height"], rdata["floor"]["max_height"])-1
+        
+        self.size = size
+        self.length, self.width = size
+        self.matrice = matrice
+        self.tiles = []
+        self.vertices = []
+        self.length_in_tiles = self.length // self.tile_size
+        self.width_in_tiles = self.width // self.tile_size
+        self.x_distribution = []
+        self.z_distribution = []
+        self.polygon = self.get_polygon()
+        self.collumns = self.get_columns()
+        
+    def build(self, editor, materials : list[str]):
+        self.polygon.fill(editor, materials[5],0)
+        self.polygon.fill(editor, materials[6], self.floor_height)
+        self.build_collumns(editor, materials)
+        
+    def build_collumns(self, editor, materials : list[str]):
+        for collumn in self.collumns:
+            if collumn.is_outer and self.is_inner_or_outer == COLLUMN_STYLE.INNER: continue
+            if not collumn.is_outer and self.is_inner_or_outer == COLLUMN_STYLE.OUTER: continue
+            collumn.fill(editor, materials[7], self.floor_height+1)
+    
+    def add_tile(self, tile : Tile):
+        self.tiles.append(tile)
+    
+    def get_polygon(self) -> Polygon:
+        ## The polygon is a shape of tiles representing the foundation shape
+        polygon = Polygon(self.size)
+        
+        # we save the distribution, usefull for the next steps 
+        self.x_distribution = self.get_distribution(len(self.matrice), self.length_in_tiles)
+        self.z_distribution = self.get_distribution(len(self.matrice[0]), self.width_in_tiles)
+        
+        # this bullshit is to create tiles from the matrice and the distribution
+        x_padding = 0
+        for x,xsize in enumerate(self.x_distribution):
+            z_padding = 0
+            for z,zsize in enumerate(self.z_distribution):
+                if self.matrice[x][z] == 1:
+                    for xi in range(xsize):
+                        for zi in range(zsize):
+                            tile = Tile(self.tile_size, (x_padding + xi*self.tile_size, z_padding + zi*self.tile_size))
+                            self.add_tile(tile)
+                z_padding += zsize * self.tile_size
+            x_padding += xsize * self.tile_size               
+        
+        polygon.set_vertices_and_neighbors(self.tiles, self.vertices, self.floor_height)   
+        polygon.compress(self.tiles, self.vertices)                 
+        return polygon
+        
+        
+        
+    def get_distribution(self,length,avaliable_tiles):
+        # foundations are based on a matrice, 
+        # this function gives the number of tiles for each row/collumn of the matrice, giving a more random shape
+        # The real shit start here
+        if length == avaliable_tiles:
+            return [1 for i in range(avaliable_tiles)]
+        
+        if length == 1:
+            return [avaliable_tiles]
+        
+        if length == 2:
+            l = rd.randint(1,avaliable_tiles-1)
+            return [l,avaliable_tiles-l]
+        
+        if length >= 3:
+            sizes = []
+            intersections_count = math.ceil(length/2)-1
+            tiles_per_side = avaliable_tiles//2
+            correction = 0
+            
+            intersect_values = np.random.choice(np.arange(1,tiles_per_side), size=intersections_count, replace=False)
+            
+            #we generate only half of the distribution      
+            last_pos = 0
+            intersect_values = np.append(intersect_values,tiles_per_side)
+            for intersect in intersect_values:
+                sizes.append(intersect - last_pos)
+                last_pos = intersect
+             
+            # we duplicate the side for the symetry
+            symetry = sizes.copy()
+            symetry.reverse()  
+            if avaliable_tiles%2 == 1: correction = 1  # if there is a tile left, add it randomly
+            if length%2 == 1 : sizes[-1], symetry = sizes[-1]*2 + correction,  symetry[1:]
+            sizes += symetry
+                
+            return sizes
+    
+    def get_columns(self) -> list[Collumn]:
+        if self.is_inner_or_outer ==  COLLUMN_STYLE.NONE: return []
+        collumns = []
+        
+        for tile in self.tiles:
+            north_west_collumn = Collumn(Point(x = tile.north_west.x-1, z = tile.north_west.z-1), tile.north_west)
+            north_east_collumn = Collumn(Point(x = tile.north_east.x, z = tile.north_east.z-1), Point(x = tile.north_east.x+1, z = tile.north_east.z))
+            south_west_collumn = Collumn(Point(x = tile.south_west.x-1, z = tile.south_west.z), Point(x = tile.south_west.x, z = tile.south_west.z+1))
+            south_east_collumn = Collumn(tile.south_east, Point(x = tile.south_east.x+1, z = tile.south_east.z+1))
+            
+            if tile.north_vertice != None or tile.west_vertice != None: north_west_collumn.set_is_outer(True)
+            
+            if tile.north_vertice != None or tile.east_vertice != None: north_east_collumn.set_is_outer(True)
+            
+            if tile.south_vertice != None or tile.west_vertice != None: south_west_collumn.set_is_outer(True)
+            
+            if tile.south_vertice != None or tile.east_vertice != None: south_east_collumn.set_is_outer(True)
+
+            collumns.extend([north_west_collumn, north_east_collumn, south_west_collumn, south_east_collumn])
+        
+        return self._suppr_doubblons_collumns(collumns)
+                   
+    def _suppr_doubblons_collumns(self, collumns : list[Collumn]): 
+        for index,collumn in enumerate(collumns):
+            if index == len(collumns)-1: break
+            for compare in  collumns[index+1:]:
+                if collumn.point1.position == compare.point1.position :
+                    if compare.is_outer : collumn.set_is_outer(True)
+                    collumns.remove(compare)
+                   
+        return collumns
+    
+        

buildings/Roof.py

@@ -0,0 +1,15 @@
+import random as rd
+from buildings.geometry.Polygon import Polygon
+
+class Roof:
+    def __init__(self,rdata, polygon : Polygon):
+        self.rdata = rdata
+        self.polygon = polygon
+        self.has_rembard = self.has_rembard()
+        
+    def build(self, editor, materials : list[str]):
+        self.polygon.fill(editor, materials[0])
+        if self.has_rembard: self.polygon.fill_vertice(editor, materials[9],1)
+        
+    def has_rembard(self):
+        return rd.random() <= self.rdata["rembard"]

buildings/TODO

@@ -0,0 +1,20 @@
+Encadrement fenêtre
+toit de balcon avec/sans pilliers
+collumn style
+rembard object
+détails facade
+rdc
+toit (clim, chateau deau, pubs)
+tiles 3d
+textures object
+opti textures
+opti géométrique
+opti gdpc
+pilliers quand trop de fenêtres + pas de pilliers si tile trop petite
+limitateur taille
+facade lisses/ immeubles collés
+matrices pré-distribués
+angles 270
+bug entrée au milieu du O
+bug entrée dans le pillier
+center le building dans son area (ou pas)

buildings/elements/Balcony.py

@@ -0,0 +1,135 @@
+import random as rd
+from gdpc import Editor, Block, geometry
+from utils.functions import *
+from utils.Enums import BALCONY_BORDER_RADIUS,COLLUMN_STYLE
+from buildings.geometry.Point import Point
+from buildings.geometry.Vertice import Vertice
+from buildings.elements.Window import Window
+
+class Balcony:
+    def __init__(self, 
+                 rdata, 
+                 max_width : int, 
+                 windows : Window, 
+                 collumn_style : COLLUMN_STYLE):
+        self.rdata = rdata
+        self.windows = windows
+        self.max_width = max_width
+        self.collumn_style = collumn_style
+        self.length = self.get_len()
+        self.has_multiple = self.has_multiple()
+        self.has_details = self.has_details()
+        self.border_radius = self.has_border_radius()
+        self.follow_window = self.follow_window()
+        self.structure = self.get_structures()
+        self.editor, self.materials = None,None
+        
+    def build(self, editor : Editor, materials : list[str]):
+        self.editor = editor
+        self.materials = materials
+        for s in self.structure:
+            s.fill(editor, materials[0])
+            self.build_rembard(s)
+            self.build_details(s)
+            self.build_border_radius(s)
+            
+    def build_rembard(self, s : Vertice):
+        geometry.placeCuboid(self.editor,(s.point1.x,1,-1),(s.point1.x,1,-self.length),Block(self.materials[3]))
+        geometry.placeCuboid(self.editor,(s.point2.x,1,-1),(s.point2.x,1,-self.length),Block(self.materials[3]))
+        geometry.placeCuboid(self.editor,(s.point1.x,1,-self.length),(s.point2.x,1,-self.length),Block(self.materials[3]))
+        
+    def build_details(self, s : Vertice):
+        if not self.has_details: return
+        geometry.placeCuboid(self.editor,(s.point1.x,0,-1),(s.point1.x,0,-self.length),Block(self.materials[4], {"facing": "east", "half": "top"}))
+        geometry.placeCuboid(self.editor,(s.point2.x,0,-1),(s.point2.x,0,-self.length),Block(self.materials[4], {"facing": "west", "half": "top"}))
+        geometry.placeCuboid(self.editor,(s.point1.x,0,-self.length),(s.point2.x,0,-self.length),Block(self.materials[4], {"facing": "south", "half": "top"}))
+      
+    def build_border_radius(self, s : Vertice):
+        if self.border_radius == BALCONY_BORDER_RADIUS.NONE: return
+        
+        geometry.placeCuboid(self.editor,(s.point1.x,0,-self.length),(s.point1.x,1,-self.length),Block("air"))
+        geometry.placeCuboid(self.editor,(s.point2.x,0,-self.length),(s.point2.x,1,-self.length),Block("air"))
+        self.editor.placeBlock((s.point1.x+1,1,-self.length+1), Block(self.materials[3]))
+        self.editor.placeBlock((s.point2.x-1,1,-self.length+1), Block(self.materials[3]))
+        
+        if self.has_details:
+            self.editor.placeBlock((s.point1.x,0,-self.length+1), Block(self.materials[4], {"facing": "south", "half": "top"}))
+            self.editor.placeBlock((s.point1.x+1,0,-self.length), Block(self.materials[4], {"facing": "east", "half": "top"}))
+            self.editor.placeBlock((s.point2.x,0,-self.length+1), Block(self.materials[4], {"facing": "south", "half": "top"}))
+            self.editor.placeBlock((s.point2.x-1,0,-self.length), Block(self.materials[4], {"facing": "west", "half": "top"}))
+            
+            if self.border_radius == BALCONY_BORDER_RADIUS.FULL:
+                self.editor.placeBlock((s.point1.x+1,0,-self.length+1), Block(self.materials[4], {"facing": "east", "half": "top"}))
+                self.editor.placeBlock((s.point2.x-1,0,-self.length+1), Block(self.materials[4], {"facing": "west", "half": "top"}))
+        
+    def get_structures(self) -> list[Vertice]:
+        # structures are the base shape of the balcony
+        attach_points = self.get_attach_points()
+        len_attach_points = len(attach_points)-1
+        min_wid = self.rdata["size"]["min_width"]
+        min_gap = self.rdata["multiple"]["min_gap"]
+        growth_chance = self.rdata["growth"]
+        midpoint = len_attach_points//2
+        x1,x2 = midpoint, len_attach_points - midpoint
+        
+        structures = []
+        centered = True
+        while x1 > 0:
+            x1 -= 1
+            x2 += 1 if centered else 0
+            leng = attach_points[x2] - attach_points[x1] - 1
+            
+            if x1 == 0: 
+                if leng >= min_wid: self.append_structure(structures, x1, x2, attach_points, len_attach_points, centered)
+                break
+            if leng < min_wid: continue
+            
+            if growth_chance < rd.random(): 
+                self.append_structure(structures, x1, x2, attach_points, len_attach_points, centered)
+                    
+                if not self.has_multiple: break
+                else:
+                    centered = False
+                    if attach_points[x1]-min_wid < min_gap: break
+                    gap  = rd.randint(min_gap, attach_points[x1]-min_wid)
+                    x2 = x1-gap
+                    x1 = x2-min_wid+1
+                           
+        return structures
+                
+    def get_attach_points(self) -> list[int]:
+        # points where the structures can start/finish
+        padding = 0 if self.collumn_style.value < 2 else 1 # collumn_style < 2 = no outer collumns
+        points = [i + padding for i in range(self.max_width)]
+        if self.follow_window:
+            pad = self.windows.padding
+            for w in self.windows.windows:
+                for i in range(pad+w.x1, pad+w.x2+1):
+                    points.remove(i)
+                    
+        return points
+    
+    def create_structure(self, x1 : int, x2 : int) -> Vertice:
+        return Vertice(Point(x = x1), Point(x = x2,z = -self.length))
+    
+    def append_structure(self, structures : list[Vertice], x1 : int, x2 : int, attach_points : list[int], len_attach_points : int, centered : bool):
+        structures.append(self.create_structure(attach_points[x1], attach_points[x2]))
+        if not centered:
+            structures.append(self.create_structure(attach_points[len_attach_points-x1], attach_points[len_attach_points-x2]))
+    
+    def follow_window(self) -> bool:
+        return not self.windows.ypadding > 3
+        
+    def has_multiple(self) -> bool:
+        if self.max_width < self.rdata["multiple"]["min_width"]: return False
+        return self.rdata["multiple"]["proba"] >= rd.random()
+    
+    def has_details(self) -> bool:
+        return self.rdata["details"] >= rd.random()
+    
+    def has_border_radius(self) -> bool:
+        if self.length < 2: return BALCONY_BORDER_RADIUS.NONE
+        return select_random(self.rdata["border_radius"], BALCONY_BORDER_RADIUS)
+    
+    def get_len(self) -> int:
+        return rd.randint(self.rdata["size"]["min_len"], self.rdata["size"]["max_len"])

buildings/elements/Collumn.py

@@ -0,0 +1,14 @@
+from buildings.geometry.Rectangle import Rectangle
+from buildings.geometry.Point import Point
+
+class Collumn(Rectangle):
+    def __init__(self, point1 : Point, point2 : Point, is_outer : bool = False) :
+        Rectangle.__init__(self, point1, point2)
+        self.is_outer = is_outer
+        
+    def set_is_outer(self, is_outer : bool):
+        self.is_outer = is_outer
+        
+    def __repr__(self):
+        return super().__repr__() + f"\nIs outer : {self.is_outer}\n\n"
+        

buildings/elements/FacadeDetails.py

@@ -0,0 +1,19 @@
+from buildings.geometry.Vertice import Vertice
+
+class FacadeDetails:
+    def __init__(self,rdata , zones : list[Vertice]):
+        self.zones = zones
+        self.sizes = self.get_sizes()
+        
+    def get_sizes(self) -> list[tuple[int,int,int]]:
+        # foreach different zone sizes in self.zones, we will gen different details
+        sizes = []
+        center_for_symetry = len(self.zones) // 2
+        for zone in self.zones:
+            size = zone.point2.position - zone.point1.position
+            if size not in sizes :
+                sizes.append(size)
+                
+        return sizes
+    
+    

buildings/elements/FacadedetailsElt/Buttons.py

@@ -0,0 +1,3 @@
+class Buttons:
+    def __init__(self):
+        pass

buildings/elements/Window.py

@@ -0,0 +1,150 @@
+import random as rd
+import math
+from gdpc import Editor, Block, geometry, Transform
+from utils.Enums import WINDOW_BORDER_RADIUS
+from utils.functions import *
+from buildings.geometry.Point import Point
+from buildings.geometry.Vertice import Vertice
+from buildings.elements.WindowElt.Glass import Glass
+
+class Window:
+    def __init__(self, 
+                 rdata, 
+                 max_width : int, 
+                 max_height : int, 
+                 facade_len : int, 
+                 facade_height : int):
+        self.rdata = rdata
+        self.width, self.height = self.get_size(max_width, max_height)
+        self.is_grounded = self.is_grounded()
+        self.is_alternate = self.is_alternate()
+        self.border_radius = self.border_radius()
+        self.has_multiple = self.has_multiple_windows()
+        self.has_vertical_crossbar, self.has_horizontal_crossbar = self.has_crossbars()
+        self.padding, self.ypadding = self.get_padding(facade_len, facade_height)
+        self.windows = self.get_windows()
+        self.editor, self.materials = None,None
+        
+    def build(self, editor : Editor, materials : list[str]):
+        self.editor = editor
+        self.materials = materials
+        with editor.pushTransform(Transform((self.padding,self.ypadding,0))):
+            for g in self.windows:
+                leng = len(g)
+                g.build(editor, materials[1], materials[2])
+                self.build_crossbars(g.x1, g.x2, leng)
+                if leng > 1: self.build_border_radius(g.x1, g.x2)
+                         
+    def build_crossbars(self, x1 : int, x2 : int, len : int):
+        if self.has_vertical_crossbar and self.height+1 >= self.rdata["crossbars"]["min_height_for_vertical_crossbar"]:
+            y = self.height//2
+            geometry.placeCuboid(self.editor,(x1,y,0),(x2,y,0),Block(self.materials[3]))
+        if self.has_horizontal_crossbar and len >= self.rdata["crossbars"]["min_width_for_horizontal_crossbar"]:
+            x = len//2
+            geometry.placeCuboid(self.editor,(x1+x,0,0),(x2-x,self.height,0),Block(self.materials[3], {"up" : "true"})) 
+            
+    def build_border_radius(self, x1 : int, x2 : int):
+        if self.border_radius != WINDOW_BORDER_RADIUS.NONE:
+            self.editor.placeBlock((x1,self.height,0),Block(self.materials[4], {"facing": "west", "half": "top"}))
+            self.editor.placeBlock((x2,self.height,0),Block(self.materials[4], {"facing": "east", "half": "top"}))
+        if self.border_radius == WINDOW_BORDER_RADIUS.TOP_AND_BOTTOM:
+            self.editor.placeBlock((x1,0,0),Block(self.materials[4], {"facing": "west"}))
+            self.editor.placeBlock((x2,0,0),Block(self.materials[4], {"facing": "east"}))
+    
+    def get_windows(self) -> list[Glass]:
+        windows = []
+        if not self.has_multiple: windows = [Glass(0,self.width-1,[self.create_window(0, self.width)])]
+        else: windows = self.get_multiple_windows()
+        if self.is_alternate: self.alternate(windows)
+        
+        return windows
+        
+    def get_multiple_windows(self) -> list[Glass]:
+        windows = []
+        slices = rd.randint(3, self.width//self.rdata["size"]["min_width"])
+        mid = math.ceil(slices/2)
+        windows_count = mid
+        inter_count = slices - windows_count
+        window_size = rd.randint(self.rdata["size"]["min_width"], (self.width-inter_count) // windows_count) 
+        inter_size = (self.width - window_size*windows_count) // inter_count
+        
+        is_even= slices % 2 == 0
+        is_window, gap = True, 0
+        remainder = self.width - (window_size*windows_count + inter_size*inter_count)
+        
+        if windows_count % 2 == 1 and inter_count % 2 == 1: 
+            inter_count -= 1
+            remainder += inter_size
+            is_even = not is_even
+            
+        for i in range(1,slices+1):
+            wsize,isize = window_size, inter_size
+            if is_even and i == mid: wsize, isize = wsize*2, isize*2
+            if i ==  mid: wsize, isize = wsize + remainder, isize + remainder
+            
+            if is_window:               
+                windows.append(Glass(gap, gap+wsize-1,[self.create_window(gap, wsize)]))
+                gap += wsize
+            else : 
+                gap += isize
+                
+            is_window = not is_window
+        
+        return windows
+    
+    def alternate(self, windows : list[Glass]):
+        for g in windows:
+            g.reset_groups()
+            leng = len(g)
+            mid = g.x1 + leng//2
+            
+            is_block, is_even = False, leng % 2 == 0
+            for x in range(g.x1,g.x2+1):
+                if is_even and x == mid: is_block = not is_block # to keep symetry
+                if is_block: g.group2.append(self.create_window(x))
+                else : g.group1.append(self.create_window(x))
+                is_block = not is_block
+        
+    def create_window(self, x1 : int, length : int = None) -> Vertice:
+        x2 = x1 if length is None else x1 + length -1
+        return Vertice(Point(x = x1), Point(x2,self.height))
+    
+    def has_multiple_windows(self):
+        if self.width >  self.rdata["size"]["max_width"]: return True
+        elif self.width >=  self.rdata["multiple"]["min_width"]:
+            return self.rdata["multiple"]["proba"] >= rd.random()
+        else : return False
+    
+    def is_alternate(self):
+        # if the window alternate between glass_blocks and glass_panes
+        return self.rdata["alternate"] >= rd.random()
+    
+        
+    def get_size(self, max_width : int ,max_height : int) -> tuple[int,int]:
+        return (
+                rd.randint(self.rdata["size"]["min_width"],max_width),
+                rd.randint(self.rdata["size"]["min_height"],max_height)
+            )
+        
+    def get_padding(self, facade_len : int, facade_height : int) -> tuple[int,int]:
+        padding,ypadding = 0,0
+        if not self.is_grounded: ypadding = (facade_height - self.height)//2
+        
+        # correction to avoid asymetry
+        padding = (facade_len - self.width)//2
+        self.width = facade_len - padding*2
+        
+        return (padding, ypadding)
+                          
+    def is_grounded(self):
+        # if the window is grounded or if there is a padding between the window and the ground
+        return self.rdata["grounded"] >= rd.random()
+    
+    def has_crossbars(self):
+        # if the window has crossbars
+        data = self.rdata["crossbars"]
+        
+        return (data["vertical_crossbar"] >= rd.random(), data["horizontal_crossbar"] >= rd.random())
+    
+    def border_radius(self):
+        return select_random(self.rdata["border_radius"], WINDOW_BORDER_RADIUS)

buildings/elements/WindowElt/Glass.py

@@ -0,0 +1,22 @@
+from gdpc import Editor
+from buildings.geometry.Vertice import Vertice
+
+class Glass:
+    def __init__(self, x1 : int, x2 : int, group1 : list[Vertice], group2 : list[Vertice] = None):
+        self.x1, self.x2 = x1, x2
+        self.group1, self.group2 = group1, group2
+        
+        
+    def build(self, editor : Editor, material1 : str, material2 : str):
+        for elt in self.group1:
+            elt.fill(editor, material1)
+        if self.group2 is None: return
+        for elt in self.group2:
+            elt.fill(editor, material2)
+            
+    def reset_groups(self):
+        self.group1, self.group2 = [], []
+    
+    def __len__(self):
+        return self.x2 - self.x1 + 1
+        

buildings/geometry/Point.py

@@ -0,0 +1,20 @@
+class Point:
+    def __init__(self, x : int = 0, y : int = 0, z : int = 0, p : tuple[int,int,int] = None):
+        if p != None: x,y,z = p
+        self.x = x
+        self.y = y
+        self.z = z
+        self.position = (x,y,z)
+        
+    def set_position(self, x : int = None, y : int = None, z : int = None, p : tuple[int,int,int] = None):
+        if p != None: x,y,z = p
+        self.x = x if x != None else self.x
+        self.y = y if y != None else self.y
+        self.z = z if z != None else self.z
+        self.position = (self.x,self.y,self.z)
+        
+    def __repr__(self):
+        return f"Point({self.position})"
+    
+    def copy(self) -> 'Point':
+        return Point(self.x, self.y, self.z)

buildings/geometry/Polygon.py

@@ -0,0 +1,107 @@
+from utils.Enums import DIRECTION
+from gdpc import Editor, Block, geometry, Transform
+from buildings.geometry.Tile import Tile
+from buildings.geometry.Point import Point
+from buildings.geometry.Rectangle import Rectangle
+from buildings.geometry.Vertice import Vertice
+
+class Polygon:
+    def __init__(self, size: tuple[int,int]):
+        self.size = size
+        self.shape = []
+        self.vertices = []
+        
+    def fill(self, editor : Editor, material : str, y : int = 0, y2 : int = None):
+        if y2 == None: y2 = 0
+        for rect in self.shape:
+            with editor.pushTransform(Transform((0,y,0))):
+                rect.fill(editor, material, y2)
+        
+    def fill_vertice(self, editor : Editor, material : str, y : int, y2 : int = None):
+        if y2 == None: y2 = 0
+        for vertice in self.vertices:
+            with editor.pushTransform(Transform((0,y,0))):
+                vertice.fill(editor, material, y2)
+
+    def compress(self, tiles : list[Tile], vertices : list[Vertice]):
+        remaining_tiles = tiles.copy()
+        while len(remaining_tiles) > 0:
+            start = remaining_tiles[0]
+            neightbor = start.get_neighbor(DIRECTION.WEST)
+            row = []
+            
+            # Find western border
+            while neightbor:
+                start = neightbor
+                neightbor = start.get_neighbor(DIRECTION.WEST)
+            
+            # Find eastern border
+            while True:
+                row.append(start)
+                remaining_tiles.remove(start)
+                neightbor = start.get_neighbor(DIRECTION.EAST)
+                if not neightbor: break
+                start = neightbor            
+            
+            # Find northern border
+            north_row = self._find_row_border(row.copy(), DIRECTION.NORTH, remaining_tiles) 
+            # Find southern border   
+            south_row = self._find_row_border(row.copy(), DIRECTION.SOUTH, remaining_tiles)
+            
+            area = Rectangle(north_row[0].north_west, south_row[-1].south_east)    
+            self.shape.append(area)    
+        
+        remaining_vertices = vertices.copy()
+        current = remaining_vertices.pop()
+        while len(remaining_vertices) > 0:
+            neighbors = current.get_neighbors()
+            has_next1 = self._has_next(neighbors[0], current.facing, remaining_vertices)
+            has_next2 = self._has_next(neighbors[1], current.facing, remaining_vertices)
+            
+            if has_next1:
+                current = Vertice(has_next1.point1.copy(), current.point2.copy(), current.facing)
+            elif has_next2:
+                current = Vertice(current.point1.copy(), has_next2.point2.copy(), current.facing)
+            else:
+                self.vertices.append(current)
+                current = remaining_vertices.pop()
+            
+            if len(remaining_vertices) == 0: self.vertices.append(current)     
+                    
+    def set_vertices_and_neighbors(self, tiles : list[Tile], vertices : list[Vertice], height : int):
+        for tile in tiles:
+            targets = tile.get_neighbors_coords()
+            for vertice_num,target in enumerate(targets):
+                has_neighbor = self._has_neighbor(target, tiles)
+                if not has_neighbor:
+                    vertice = tile.get_vertice(vertice_num)
+                    vertices.append(vertice)
+                    tile.set_vertice(DIRECTION(vertice_num), vertice, height)
+                else :
+                    tile.set_neighbor(vertice_num, has_neighbor)
+    
+    def _find_row_border(self, line : list[Tile], direction : str, remaining_tiles : list[Tile]) -> list[Tile]:
+        while True:
+            new_line = []
+            for tile in line:
+                neightbor = tile.get_neighbor(direction)
+                if neightbor not in remaining_tiles: return line
+                new_line.append(neightbor)
+            for tile in new_line: remaining_tiles.remove(tile)
+            line = new_line
+    
+    def _has_neighbor(self, target : Point, tiles : list[Tile]) -> bool|Tile:
+        for tile in tiles:
+            if tile.pos.position == target.position:
+                return tile
+        return False
+    
+    def _has_next(self, target : Point, facing : str, remaining_vertices : list[Vertice]) -> bool|Vertice:
+        for vertice in remaining_vertices:
+            if vertice.facing == facing:
+                if vertice.point1.position == target.position or vertice.point2.position == target.position:
+                    remaining_vertices.remove(vertice)
+                    return vertice
+        return False
+                        
+    

buildings/geometry/Rectangle.py

@@ -0,0 +1,23 @@
+from gdpc import Editor, Block, geometry
+from buildings.geometry.Point import Point
+
+class Rectangle:
+    def __init__(self, point1 : Point, point2 : Point):
+        self.point1 = point1
+        self.point2 = point2
+        
+    def get_position(self):
+        return (self.point1.position, self.point2.position)
+    
+    def get_height(self):
+        return self.point2.y - self.point1.y
+    
+    def fill(self,editor : Editor, material : str, y : int = None, xpadding : int = 0, zpadding : int = 0):
+        if self.point2.x - self.point1.x < 2*xpadding: xpadding = 0
+        if self.point2.z - self.point1.z < 2*zpadding: zpadding = 0
+        if y is None: y = self.point2.y
+        
+        geometry.placeCuboid(editor, (self.point1.x+xpadding, 0, self.point1.z+zpadding), (self.point2.x-xpadding, y, self.point2.z-zpadding), Block(material))
+
+    def __repr__(self):
+        return f"{type(self).__name__}\n1 : {str(self.point1)},\n2 : {str(self.point2)}"

buildings/geometry/Tile.py

@@ -0,0 +1,94 @@
+from gdpc import Editor, Block, geometry
+from utils.Enums import DIRECTION
+from buildings.geometry.Point import Point
+from buildings.geometry.Vertice import Vertice
+
+class Tile:
+    def __init__(self, size : int, position : tuple[int, int]):
+        self.size = size
+        x,z = position
+        leng  = self.size-1
+        self.pos = Point(x = x, z = z)
+        
+        self.has_vertice = False
+        
+        self.north_west = self.pos
+        self.north_east = Point(x = self.pos.x + leng, z =self.pos.z)
+        self.south_west = Point(x = self.pos.x, z = self.pos.z + leng)
+        self.south_east = Point(x = self.pos.x + leng, z = self.pos.z + leng)
+        
+        self.west_neighbor = None
+        self.east_neighbor = None
+        self.north_neighbor = None
+        self.south_neighbor = None
+        
+        self.west_vertice = None
+        self.east_vertice = None
+        self.north_vertice = None
+        self.south_vertice = None
+        
+    def fill(self, editor : Editor, material : str, y : int = 0) -> list[Point]:
+        geometry.placeCuboid(editor, (self.pos.x, 0, self.pos.z), (self.pos.x+self.size-1, y, self.pos.z+self.size-1), Block(material))
+        
+    def get_neighbors_coords(self):
+        return [Point(x = self.pos.x, z = self.pos.z - self.size), # north
+                Point(x = self.pos.x + self.size, z = self.pos.z), # east
+                Point(x = self.pos.x, z = self.pos.z + self.size), # south
+                Point(x = self.pos.x - self.size, z = self.pos.z)] # west
+        
+            
+    def get_neighbor(self, direction) -> Point:
+        match(direction):
+            case DIRECTION.WEST:
+                return self.west_neighbor
+            case DIRECTION.EAST:
+                return self.east_neighbor
+            case DIRECTION.NORTH:
+                return self.north_neighbor
+            case DIRECTION.SOUTH:
+                return self.south_neighbor
+            
+    def set_neighbor(self, direction, neighbor : 'Tile'):
+        match(direction):
+            case DIRECTION.WEST:
+                self.west_neighbor = neighbor
+            case DIRECTION.EAST:
+                self.east_neighbor = neighbor
+            case DIRECTION.NORTH:
+                self.north_neighbor = neighbor
+            case DIRECTION.SOUTH:
+                self.south_neighbor = neighbor
+    
+    def get_vertice(self,vertice : int|DIRECTION) -> Vertice:
+        # gives the corresponding vertice : 
+        # 0 = north, 1 = east, 2 = south, 3 = west
+        match(vertice):
+            case 0 :
+                return Vertice(self.north_west.copy(), self.north_east.copy(), DIRECTION.NORTH)
+            case 1 :
+                return Vertice(self.north_east.copy(), self.south_east.copy(), DIRECTION.EAST)
+            case 2 :
+                return Vertice(self.south_west.copy(), self.south_east.copy(), DIRECTION.SOUTH)
+            case 3 :
+                return Vertice(self.north_west.copy(), self.south_west.copy(), DIRECTION.WEST)
+            case DIRECTION.WEST :
+                return self.west_vertice
+            case DIRECTION.EAST :
+                return self.east_vertice
+            case DIRECTION.NORTH :
+                return self.north_vertice
+            case DIRECTION.SOUTH :
+                return self.south_vertice
+            
+    def set_vertice(self, direction : DIRECTION, vertice : Vertice, height : int):
+        self.has_vertice = True
+        vertice.point2.set_position(y = height)
+        match(direction):
+            case DIRECTION.WEST :
+                self.west_vertice = vertice
+            case DIRECTION.EAST :
+                self.east_vertice = vertice
+            case DIRECTION.NORTH :
+                self.north_vertice = vertice
+            case DIRECTION.SOUTH :
+                self.south_vertice = vertice

buildings/geometry/Vertice.py

@@ -0,0 +1,24 @@
+from utils.Enums import DIRECTION
+from buildings.geometry.Point import Point
+from buildings.geometry.Rectangle import Rectangle
+
+class Vertice(Rectangle):
+    def __init__(self, point1 : Point, point2 : Point, facing : DIRECTION = None):
+        Rectangle.__init__(self, point1, point2)
+        self.facing = facing
+        
+    def get_neighbors(self):
+        match self.facing:
+            case DIRECTION.NORTH | DIRECTION.SOUTH:
+                return [Point(x = self.point1.x - 1, z = self.point1.z), 
+                        Point(x = self.point2.x + 1, z = self.point2.z)]
+            case DIRECTION.EAST | DIRECTION.WEST:
+                return [Point(x = self.point1.x, z = self.point1.z - 1), 
+                        Point(x = self.point2.x, z = self.point2.z + 1)]
+
+    def __len__(self):
+        return self.point2.x - self.point1.x + self.point2.z - self.point1.z + 1
+    
+    def __repr__(self):
+        return super().__repr__() + f"\nFacing : {self.facing} \n\n"
+        

buildings/shapes.json

@@ -0,0 +1,59 @@
+[
+    {
+        "id": 0,
+        "name": "basic_shape",
+        "matrice":[[1]]
+    },
+    {
+        "id": 1,
+        "name": "long_shape",
+        "matrice":[[0,1]]
+    },
+    {
+        "id": 2,
+        "name": "double_long_shape",
+        "matrice":[[1,0,1]]
+    },
+    {
+        "id": 3,
+        "name": "L_shape",
+        "matrice":[[1,0],
+                   [1,1]]
+    },
+    {
+        "id": 4,
+        "name": "U_shape",
+        "matrice":[[1,0,1],
+                   [1,1,1]]
+    },
+    {
+        "id": 5,
+        "name": "H_shape",
+        "matrice":[[1,0,1],
+                   [1,1,1],
+                   [1,0,1]]
+    },
+    {
+        "id": 6,
+        "name": "X_shape",
+        "matrice":[[0,1,0],
+                   [1,1,1],
+                   [0,1,0]]
+    },
+    {
+        "id": 7,
+        "name": "O_shape",
+        "matrice":[[1,1,1],
+                   [1,0,1],
+                   [1,1,1]]
+    },
+    {
+        "id": 8,
+        "name": "E_shape",
+        "matrice":[[1,1,1],
+                   [1,0,0],
+                   [1,1,1],
+                   [1,0,0],
+                   [1,1,1]]
+    }
+]

main.py

@@ -1,22 +1,45 @@
-from gdpc import Editor, Block, geometry
+from gdpc import Editor, Block, geometry, Transform
 import networks.curve as curve
 import numpy as np
+from utils.JsonReader import JsonReader
+from utils.YamlReader import YamlReader
+from buildings.Building import Building
+
+from utils.functions import *
 
 editor = Editor(buffering=True)
 
+# get every differents buildings shapes
+f = JsonReader('buildings\shapes.json')
+shapes = f.data
+
+# get the random data for the buildings
+y = YamlReader('params.yml')
+random_data = y.data
+
+#move your editor to the position you wanna build on
+transform = Transform((0,-60,110),rotation = 0)
+editor.transform.push(transform)
+
+# clear the area you build on
+geometry.placeCuboid(editor, (-5,0,-8), (25,100,25), Block("air"))
+
+# create a building at the relative position 0,0 with 20 blocks length and 20 blocks width, with a normal shape and 10 floors
+building = Building(random_data["buildings"], (0, 0), (20,20), shapes[0]['matrice'], 10)
+# build it with your custom materials
+building.build(editor, ["stone_bricks","glass_pane","glass","cobblestone_wall","stone_brick_stairs","oak_planks","white_concrete","cobblestone","stone_brick_slab","iron_bars"])
+
+
+
+
+
+
 # # Get a block
 block = editor.getBlock((0,48,0))
 
-# # Place a block
-editor.placeBlock((-5, -58, 0), Block("stone"))
-
 # # Build a cube
 # geometry.placeCuboid(editor, (458, 92, 488), (468, 99, 471), Block("oak_planks"))
 
-curve = curve.Curve([(396, 132, 740), (435, 138, 730),
+# curve = curve.Curve([(396, 132, 740), (435, 138, 730),
-                    (443, 161, 758), (417, 73, 729)])
+#                     (443, 161, 758), (417, 73, 729)])
-curve.compute_curve()
+# curve.compute_curve()
-
-#for point in curve.computed_points:
-#    print(point)
-#    editor.placeBlock(point, Block("stone"))

metro/Metro_Line.py

@@ -0,0 +1,92 @@
+from math import sqrt, atan2
+
+
+class Position:
+    def __init__(self, x: int = 0, y: int = 0):
+        self.x = x
+        self.y = y
+
+    def __add__(self, other: "Position") -> "Position":
+        return Position(self.x + other.x, self.y + other.y)
+
+    def __sub__(self, other: "Position") -> "Position":
+        return Position(self.x - other.x, self.y - other.y)
+
+    def __mul__(self, other: float) -> "Position":
+        return Position(int(self.x * other), int(self.y * other))
+
+    def __truediv__(self, other: float) -> "Position":
+        return Position(int(self.x / other), int(self.y / other))
+
+    def __str__(self):
+        return f"({self.x}, {self.y})"
+
+    def __eq__(self, other: "Position"):
+        return self.x == other.x and self.y == other.y
+
+    def distance_to(self, other: "Position") -> float:
+        return sqrt((self.x - other.x) ** 2 + (self.y - other.y) ** 2)
+
+    def norm(self) -> float:
+        return sqrt(self.x ** 2 + self.y ** 2)
+
+    def angle_to(self, other: "Position") -> float:
+        return atan2(self.y - other.y, other.x - self.x)
+
+
+class Station:
+    """
+    This class represents the position and link of a metro station.
+    """
+
+    def __init__(self, pos: Position, orientation: float, name: str = "Station"):
+        """
+        Constructor of Station.
+
+        :param pos: Position x and y of the station
+        :param orientation: The orientation of the station in radian (The angle is where the station is facing next)
+        :param name: The name of the station
+        """
+        self.name = name
+        self.orientation = orientation
+        self.pos = pos
+        self.last_station = None
+        self.next_station = None
+
+    def distance_to(self, station: "Station") -> float:
+        """
+        Calculate the distance between two stations.
+
+        :param station: The station to calculate the distance to
+        :return: The distance between two stations
+        """
+        return self.pos.distance_to(station.pos)
+
+
+class Metro_Line:
+    """
+    This class represents the metro line.
+    """
+
+    def __init__(self, name: str = "Metro line A"):
+        """
+        Constructor of Metro_Line.
+
+        :param name: The name of the metro line
+        """
+        self.name = name
+        self.stations = []
+
+    def add_station(self, station: Station):
+        """
+        Add a station to the metro map.
+
+        :param station: The station to be added
+        """
+        self.stations.append(station)
+        if len(self.stations) > 1:
+            self.stations[-2].next_station = station
+            station.last_station = self.stations[-2]
+
+
+__all__ = ["Metro_Line", "Station", "Position"]

metro/metro_line_map.py

@@ -0,0 +1,404 @@
+from Metro_Line import *
+from math import pi, cos, sin, sqrt, atan2, inf
+from pygame import Surface
+import pygame
+
+from metro.Metro_Line import Position
+
+
+def cubic_bezier(time: float, join1: Position, control_point1: Position, control_point2: Position,
+                 join2: Position) -> Position:
+    """
+    Calculate the position of a point on a cubic Bézier curve at a given time
+
+    Formula used : B(t) = (1-t)^3 * P0 + 3(1-t)^2 * t * P1 + 3(1-t) * t^2 * P2 + t^3 * P3
+
+    :param time: The time at which to calculate the position
+    :param join1: The first join point of the curve
+    :param control_point1: The first control point of the curve
+    :param control_point2: The second control point of the curve
+    :param join2: The second join point of the curve
+    :return: The position of the point on the curve at the given time
+    """
+    return (join1 * ((1 - time) ** 3)
+            + control_point1 * 3 * ((1 - time) ** 2) * time
+            + control_point2 * 3 * (1 - time) * (time ** 2)
+            + join2 * (time ** 3))
+
+
+def cubic_bezier_derivative(time: float, join1: Position, control_point1: Position, control_point2: Position,
+                            join2: Position) -> Position:
+    """
+    Calculate the first derivative of a cubic Bézier curve at a given time
+
+    Formula used : B'(t) = 3(1-t)^2 * (P1 - P0) + 6(1-t) * t * (P2 - P1) + 3t^2 * (P3 - P2)
+
+    :param time: The time at which to calculate the derivative
+    :param join1: The first join point of the curve
+    :param control_point1: The first control point of the curve
+    :param control_point2: The second control point of the curve
+    :param join2: The second join point of the curve
+    :return: The derivative of the curve at the given time
+    """
+    return ((control_point1 - join1) * 3 * ((1 - time) ** 2)
+            + (control_point2 - control_point1) * 6 * (1 - time) * time
+            + (join2 - control_point2) * 3 * (time ** 2))
+
+
+def cubic_bezier_second_derivative(time: float, join1: Position, control_point1: Position, control_point2: Position,
+                                   join2: Position) -> Position:
+    """
+    Calculate the second derivative of a cubic Bézier curve at a given time
+
+    Formula used : B''(t) = 6(1-t) * (P2 - 2P1 + P0) + 6t * (P3 - 2P2 + P1)
+
+    :param time: The time at which to calculate the second derivative
+    :param join1: The first join point of the curve
+    :param control_point1: The first control point of the curve
+    :param control_point2: The second control point of the curve
+    :param join2: The second join point of the curve
+    :return: The second derivative of the curve at the given time
+    """
+    return ((control_point2 - control_point1 * 2 + join1) * 6 * (1 - time)
+            + (join2 - control_point2 * 2 + control_point1) * 6 * time)
+
+
+def bezier_curve(control_points, num_points) -> tuple[list[Position], list[Position], list[Position]]:
+    """
+    Generate a Bézier curve from a list of control points
+
+    :param control_points: The control points of the curve
+    :param num_points: The number of points to generate
+    :return: A tuple containing the points of the curve, the derivative of the curve,
+             and the second derivative of the curve
+    """
+    points = []
+    derivative = []
+    second_derivative = []
+    for t in range(num_points + 1):
+        points.append(cubic_bezier(t / num_points, *control_points))
+        derivative.append(cubic_bezier_derivative(t / num_points, *control_points))
+        second_derivative.append(cubic_bezier_second_derivative(t / num_points, *control_points))
+    return points, derivative, second_derivative
+
+
+def osculating_circle(points: list[Position], derivative: list[Position], second_derivative: list[Position]) \
+        -> list[tuple[int, Position]]:
+    """
+    Calculate the osculating circle at each point of a curve
+    An osculating circle is the circle that best approximates the curve at a given point
+
+    Source : https://en.wikipedia.org/wiki/Osculating_circle
+
+    :param points: The points of the curve
+    :param derivative: The derivative of the curve
+    :param second_derivative: The second derivative of the curve
+    :return: A list of tuples, each containing the radius and center of each osculating circle
+    """
+    circle = []
+    for i in range(len(points)):
+        curvature = (abs(derivative[i].x * second_derivative[i].y - derivative[i].y * second_derivative[i].x)
+                     / ((derivative[i].x ** 2 + derivative[i].y ** 2) ** 1.5))
+        if curvature != 0:
+            radius = 1 / curvature
+            normal = derivative[i].norm()
+            cross_product = derivative[i].x * second_derivative[i].y - derivative[i].y * second_derivative[i].x
+            if cross_product > 0:
+                center = points[i] + Position(-derivative[i].y * radius / normal, derivative[i].x * radius / normal)
+            else:
+                center = points[i] + Position(derivative[i].y * radius / normal, -derivative[i].x * radius / normal)
+            circle.append((int(radius), center))
+    return circle
+
+
+def merge_similar_circles(circles: list[tuple[int, Position]], radius_threshold: float, center_threshold: float) \
+        -> list[tuple[int, Position]]:
+    """
+    Merge similar osculating circles
+
+    :param circles: The osculating circles to merge
+    :param radius_threshold: The maximum difference in radius for two circles to be considered similar
+    :param center_threshold: The maximum distance between the centers of two circles to be considered similar
+    :return: The merged osculating circles
+    """
+    merged_circles = []
+    i = 0
+    while i < len(circles) - 1:
+        radius1, center1 = circles[i]
+        radius2, center2 = circles[i + 1]
+        if abs(radius1 - radius2) <= radius_threshold and center1.distance_to(center2) <= center_threshold:
+            merged_radius = (radius1 + radius2) // 2
+            merged_center = Position((center1.x + center2.x) // 2, (center1.y + center2.y) // 2)
+            merged_circles.append((merged_radius, merged_center))
+            i += 2
+        else:
+            merged_circles.append(circles[i])
+            i += 1
+    if i < len(circles):
+        merged_circles.append(circles[i])
+
+    if len(merged_circles) == len(circles):
+        return merged_circles
+    else:
+        return merge_similar_circles(merged_circles, radius_threshold, center_threshold)
+
+
+def circle_intersection(circle1: tuple[int, Position], circle2: tuple[int, Position]) -> list[Position]:
+    distance = circle1[1].distance_to(circle2[1])
+
+    if (distance > circle1[0] + circle2[0] or distance < abs(circle1[0] - circle2[0])
+            or (distance == 0 and circle1[0] == circle2[0])):
+        return []
+
+    distance_line_circle = (circle1[0] ** 2 - circle2[0] ** 2 + distance ** 2) / (2 * distance)
+    distance_line_intersec_point = sqrt(circle1[0] ** 2 - distance_line_circle ** 2)
+    p = circle1[1] + (circle2[1] - circle1[1]) * distance_line_circle / distance
+
+    return [Position(int(p.x + distance_line_intersec_point * (circle2[1].y - circle1[1].y) / distance),
+                     int(p.y - distance_line_intersec_point * (circle2[1].x - circle1[1].x) / distance)),
+            Position(int(p.x - distance_line_intersec_point * (circle2[1].y - circle1[1].y) / distance),
+                     int(p.y + distance_line_intersec_point * (circle2[1].x - circle1[1].x) / distance))]
+
+
+def closest_to_curve(points: list[Position], curve_points: list[Position]) -> Position:
+    closest_point = Position()
+    distance = inf
+    for point in points:
+        for curve_point in curve_points:
+            distance_point_curve = point.distance_to(curve_point)
+            if distance_point_curve < distance:
+                distance = distance_point_curve
+                closest_point = point
+    return closest_point
+
+
+def midpoint_circle_segment(circle: tuple[int, Position], start_point: Position, end_point: Position, curve_points: list[Position]) -> list[
+    Position]:
+    points = []
+
+    start_angle = circle[1].angle_to(start_point)
+    end_angle = circle[1].angle_to(end_point)
+
+    if start_angle < 0:
+        start_angle += 2 * pi
+    if end_angle < 0:
+        end_angle += 2 * pi
+    if start_angle > end_angle:
+        start_angle, end_angle = end_angle, start_angle
+
+    middle_angle = (start_angle+end_angle)/2
+    middle_point = circle[1] + Position(int(circle[0]*cos(middle_angle)), -int(circle[0]*sin(middle_angle)))
+    is_outside_point = closest_to_curve([middle_point, circle[1]], curve_points) == middle_point
+
+    x0, y0 = circle[1].x, circle[1].y
+    x = circle[0]
+    y = 0
+    err = 0
+
+    while x >= y:
+        for (x1, y1) in [(x0 + x, y0 + y), (x0 + y, y0 + x), (x0 - y, y0 + x), (x0 - x, y0 + y),
+                         (x0 - x, y0 - y), (x0 - y, y0 - x), (x0 + y, y0 - x), (x0 + x, y0 - y)]:
+            angle = atan2(y0 - y1, x1 - x0)
+            if angle < 0:
+                angle += 2*pi
+            if is_outside_point:
+                if start_angle <= angle <= end_angle:
+                    points.append(Position(int(x1), int(y1)))
+            else:
+                if angle <= start_angle or end_angle <= angle:
+                    points.append(Position(int(x1), int(y1)))
+
+        if err <= 0:
+            y += 1
+            err += 2 * y + 1
+        if err > 0:
+            x -= 1
+            err -= 2 * x + 1
+
+    return points
+
+
+def calculate_control_points(station, next_station, curve_factor) -> tuple[Position, Position]:
+    """
+    Calculate the control points for a Bézier curve between two stations
+
+    :param station: The first station
+    :param next_station: The second station
+    :param curve_factor: The factor to multiply the distance between stations to create the control points
+    :return: A tuple containing the control points for the curve
+    """
+    distance = station.distance_to(next_station)
+
+    control_point_pos = station.pos + Position(cos(station.orientation) * distance * curve_factor,
+                                               -sin(station.orientation) * distance * curve_factor)
+
+    control_point_next_pos = next_station.pos + Position(
+        cos(next_station.orientation + pi) * distance * curve_factor,
+        - sin(next_station.orientation + pi) * distance * curve_factor)
+
+    return control_point_pos, control_point_next_pos
+
+
+def metro_line_osculating_circles(metro: Metro_Line, curve_factor: float = 0.5, num_points_factor: float = 1 / 20) -> (
+        tuple)[list[tuple[int, Position]], list[Position]]:
+    """
+    Calculate the osculating circles of a metro line
+
+    :param metro: The metro line to calculate the osculating circles of
+    :param curve_factor: How much the control points should be offset from the stations
+    :param num_points_factor: How many points to generate for each segment of the curve
+    :return: A tuple containing the osculating circles and the points of the metro line curve
+    """
+    print(f"[METRO LINE] Calculating osculating circles of the metro line {metro.name}")
+    circles = []
+    points_list = []
+    for i in range(len(metro.stations) - 1):
+        print(f"[METRO LINE] Calculating between {metro.stations[i].name} and {metro.stations[i].next_station.name}")
+        station = metro.stations[i]
+
+        distance = station.distance_to(station.next_station)
+
+        control_point_pos, control_point_next_pos = calculate_control_points(station, station.next_station,
+                                                                             curve_factor)
+
+        points, derivatives, second_derivatives = bezier_curve(
+            [station.pos, control_point_pos, control_point_next_pos, station.next_station.pos],
+            int(distance * num_points_factor))
+
+        osculating_circles = osculating_circle(points, derivatives, second_derivatives)
+        merged_circles = merge_similar_circles(osculating_circles, 50, 50)
+        print(
+            f"[METRO LINE] {len(osculating_circles) - len(merged_circles)} out of {len(osculating_circles)} circles deleted !")
+        circles.extend(merged_circles)
+        points_list.extend(points)
+    print(f"[METRO LINE] Osculating circles done")
+    return circles, points_list
+
+
+# --- DRAW PART ---
+
+def draw_osculating_circle(circle: list[tuple[int, Position]], surface: Surface):
+    """
+    :param circle: The osculating circles to draw
+    :param surface: The surface on which to draw the circles
+    """
+    for radius, center in circle:
+        pygame.draw.circle(surface, (255, 0, 0), (center.x, center.y), int(radius), 1)
+        pygame.draw.circle(surface, (0, 0, 255), (center.x, center.y), 10)
+
+
+def draw_station(station: Station, surface: Surface):
+    """
+    :param station: The station to draw
+    :param surface: The surface on which to draw the station
+    """
+    pygame.draw.circle(surface, (255, 255, 255), (station.pos.x, station.pos.y), 10)
+
+
+def draw_points(points: list[Position], surface):
+    """
+    :param points: The points to draw
+    :param surface: The surface on which to draw the points
+    """
+    for point in points:
+        pygame.draw.circle(surface, (40, 255, 40), (point.x, point.y), 5)
+
+
+def draw_point(point: Position, surface):
+    pygame.draw.circle(surface, (40, 255, 40), (point.x, point.y), 5)
+
+
+def draw_pixels(points: list[Position], surface):
+    for point in points:
+        surface.set_at((point.x, point.y), (0, 255, 255))
+
+
+def draw_metro_line(metro: Metro_Line, surface: Surface, show_points: bool = True):
+    """
+    :param metro: The metro line to draw
+    :param surface: The surface on which to draw the metro line
+    :param show_points: Whether to show the points of the curve
+    """
+    for i in range(len(metro.stations) - 1):
+        station = metro.stations[i]
+        draw_station(station, surface)
+        draw_station(station.next_station, surface)
+
+    circles, points = metro_line_osculating_circles(metro)
+    draw_osculating_circle(circles, surface)
+    for i in range(1, len(circles) - 1):
+        intersect_point_circle_before = closest_to_curve(circle_intersection(circles[i - 1], circles[i]), points)
+        intersect_point_circle_after = closest_to_curve(circle_intersection(circles[i], circles[i + 1]), points)
+        if intersect_point_circle_before == Position():
+            continue
+            intersect_point_circle_before = circles[i - 1][1]
+        else:
+            draw_point(intersect_point_circle_before, surface)
+
+        if intersect_point_circle_after == Position():
+            continue
+            intersect_point_circle_after = circles[i + 1][1]
+        else:
+            draw_point(intersect_point_circle_after, surface)
+
+        points_midpoint = midpoint_circle_segment(circles[i], intersect_point_circle_before,
+                                                  intersect_point_circle_after, points)
+        draw_pixels(points_midpoint, surface)
+
+    if len(points) != 0:
+        intersect_point_circle_before = points[0]
+        intersect_point_circle_after = closest_to_curve(circle_intersection(circles[0], circles[1]), points)
+        points_midpoint = midpoint_circle_segment(circles[0], intersect_point_circle_before,
+                                                  intersect_point_circle_after, points)
+        draw_pixels(points_midpoint, surface)
+
+        intersect_point_circle_before = points[-1]
+        intersect_point_circle_after = closest_to_curve(circle_intersection(circles[-1], circles[-2]), points)
+        points_midpoint = midpoint_circle_segment(circles[-1], intersect_point_circle_before,
+                                                  intersect_point_circle_after, points)
+        draw_pixels(points_midpoint, surface)
+
+
+def interface():
+    """
+    Interface for creating a metro line
+
+    Control :
+
+    - Up arrow ↑ Create a station facing north
+
+    - Down arrow ↓ Create a station facing south
+
+    - Left arrow ← Create a station facing west
+
+    - Right arrow → Create a station facing east
+    """
+    metro = Metro_Line('A')
+    surface = pygame.display.set_mode((1000, 1000))
+    while True:
+        for event in pygame.event.get():
+            if event.type == pygame.QUIT:
+                pygame.quit()
+                return
+
+            if event.type == pygame.KEYDOWN:
+                angle = 0
+                if event.key == pygame.K_UP:
+                    angle = pi / 2
+                elif event.key == pygame.K_DOWN:
+                    angle = -pi / 2
+                elif event.key == pygame.K_LEFT:
+                    angle = pi
+                x, y = pygame.mouse.get_pos()
+                metro.add_station(Station(Position(x, y), angle, str(len(metro.stations))))
+                draw_metro_line(metro, surface)
+
+        pygame.display.flip()
+
+
+def main():
+    interface()
+
+
+if __name__ == "__main__":
+    main()

params.yml

@@ -0,0 +1,91 @@
+#  contains all random variables
+buildings:
+  tile_size:
+    min_tile_size: 3
+    max_tile_size: 12
+
+  foundations:
+    collumn_style :
+    # proportion of each style
+      none: 1
+      inner: 5
+      outer: 1
+      both: 1
+    floor:
+      min_height: 4
+      max_height: 7
+
+  facade:
+
+    windows:
+      size:
+        min_height: 2
+        max_height: 6
+        min_width: 1
+        max_width: 12
+      crossbars:
+        min_height_for_vertical_crossbar: 3
+        vertical_crossbar: 0.25
+        min_width_for_horizontal_crossbar: 3
+        horizontal_crossbar: 0.25
+      grounded: 0.5
+      # alternate between block and pane
+      alternate: 0.5
+      multiple: 
+        # min size and probability of multiple windows on the same vertice
+        min_width: 5
+        proba: 0.5
+      border_radius:
+        # proportion of each style
+        none: 2
+        top: 1
+        top_and_bottom: 1
+    
+    balcony: 
+      proba : 0.25
+      growth: 0.5 # [growth]% chance to have min_width + 1 balcony length, [growth**2]% chance to have min_width + 2 balcony length, etc
+      size:
+        min_len : 1
+        max_len : 3
+        min_width : 3
+      multiple:
+      # probability to have multiple balcony IF POSSIBLE
+      # this feature need a very large facade
+        proba: 1
+        min_width: 5
+        min_gap: 1
+      details: 0.35
+      border_radius:
+        # proportion of each style
+        none: 6
+        # no difference if there is no details
+        medium: 1
+        full: 1
+
+    inter_floor: 
+      proba: 0.5
+      border_style:
+        # bloc used to fill the corner of the interfloor
+        none: 1
+        slab: 2
+        stairs: 2
+
+  entrance:
+    centered: 0.8
+    different_facade: 0.75
+    size:
+      min_height: 5
+      max_height: 9
+    door:
+      size:
+        min_height: 2
+        max_height: 4
+        min_width: 1
+        max_width: 3
+      padding:
+        max: 2
+        max_top: 2
+
+  roof:
+    rembard: 0.5
+      

requirements.txt

@@ -1,4 +1,8 @@
 gdpc==7.1.0
-matplotlib==3.8.2
 numpy==1.26.4
-scipy==1.13.0
+Pillow==10.3.0
+pygame==2.5.2
+scipy==1.13.1
+skan==0.11.1
+skimage==0.0
+pyyaml==6.0.1

utils/Enums.py

@@ -0,0 +1,28 @@
+from enum import Enum
+
+class DIRECTION(Enum):
+    NORTH = 0
+    EAST = 1
+    SOUTH = 2
+    WEST = 3
+    
+class COLLUMN_STYLE(Enum):
+    NONE = 0
+    INNER = 1
+    OUTER = 2
+    BOTH = 3
+    
+class WINDOW_BORDER_RADIUS(Enum):
+    NONE = 0
+    TOP = 1
+    TOP_AND_BOTTOM = 2  
+    
+class BALCONY_BORDER_RADIUS(Enum):
+    NONE = 0
+    MEDIUM = 1
+    FULL = 2
+    
+class INTER_FLOOR_BORDER(Enum):
+    NONE = 0
+    SLAB = 1
+    STAIRS = 2

utils/JsonReader.py

@@ -0,0 +1,11 @@
+import json
+
+class JsonReader:
+    def __init__(self, json_file):
+        self.data = self._load_json(json_file)
+        
+    def _load_json(self, json_file : str):
+        f = open(json_file)
+        js = json.load(f)
+        
+        return js

utils/YamlReader.py

@@ -0,0 +1,11 @@
+import yaml
+
+class YamlReader:
+    def __init__(self, yaml_file):
+        self.data = self._load_yaml(yaml_file)
+        
+    def _load_yaml(self, yaml_file : str):
+        with open(yaml_file, 'r') as stream:
+            data_loaded = yaml.safe_load(stream)
+        
+        return data_loaded

utils/functions.py

@@ -0,0 +1,6 @@
+from enum import Enum
+import random as rd
+
+def select_random(rdata : dict, enum : Enum) -> Enum:
+    # select a random value of the dict according to his coef and return the corresponding value in the enum
+    return enum[rd.choice([elt for elt,num in rdata.items() for _ in range(num)]).upper()]

world_maker/Block.py

@@ -0,0 +1,34 @@
+from gdpc import Editor, Block, geometry
+from gdpc.lookup import *
+import numpy as np
+import math
+
+SOLID_NATURAL_BLOCKS = SOILS | STONES | ORES | LIQUIDS
+
+class Block:
+    def __init__(self, coordinates:tuple, name:str):
+        self.coordinates = coordinates
+        self.name = name
+        self.neighbors = []
+        self.surface = None
+
+
+    def addNeighbors(self, neighbors:list[Block]):
+        for neighbor in neighbors:
+            self.neighbors.append(neighbor)
+
+    def isSurface(self):
+        if self.surface == None:
+            if str(self.name) in SOLID_NATURAL_BLOCKS:
+                for neighbor in self.neighbors:
+                    if str(neighbor.name) not in SOLID_NATURAL_BLOCKS:
+                        self.surface = True
+                        return True
+                if len(self.neighbors) != 0:
+                    self.surface = False
+                    return False
+            else:
+                self.surface = False
+                return False
+        else:
+            return self.surface

world_maker/City.py

@@ -0,0 +1,153 @@
+from District import District, Road
+from Position import Position
+from PIL import Image
+import random
+from data_analysis import handle_import_image
+from typing import Union
+
+
+class City:
+    """
+    Attributes:
+        districts (list): The list of districts in the city.
+        map_data (list): The 2D list representing the map of the city.
+        height_map (list): The 2D list representing the height map of the city.
+    """
+
+    def __init__(self):
+        """
+        The constructor for the City class.
+        """
+        self.districts = []
+        self.map_data = []
+        self.height_map = []
+        self.init_maps()
+
+    def init_maps(self):
+        """
+        Initialize the maps of the city. It reads the heightmap and watermap images and converts them into 2D lists.
+        """
+        heightmap = Image.open('./data/heightmap.png').convert('L')
+        watermap = Image.open('./data/watermap.png').convert('L')
+        width, height = heightmap.size
+        self.map_data = [[-1 if watermap.getpixel((x, y)) > 0 else 0 for x in range(width)] for y in range(height)]
+        self.height_map = [[heightmap.getpixel((x, y)) for x in range(width)] for y in range(height)]
+        watermap.close()
+        heightmap.close()
+
+    def add_district(self, center: Position, district_type: str = ""):
+        """
+        Add a new district to the city.
+
+        :param district_type:
+        :param center: The center position of the new district.
+        """
+        self.districts.append(District(len(self.districts) + 1, center, district_type))
+        self.map_data[center.y][center.x] = len(self.districts)
+
+    def is_expend_finished(self):
+        """
+        Check if the expansion of all districts in the city is finished.
+
+        :return: True if the expansion is finished, False otherwise.
+        """
+        for district in self.districts:
+            if len(district.area_expend_from_point) > 0:
+                return False
+        return True
+
+    def choose_expend_point(self, point: Position, index_district: int):
+        """
+        Choose a point to expand a district based on the distance between the center of the district and the point itself.
+
+        :param point: The point to be expanded.
+        :param index_district: The index of the district to be expanded.
+        """
+        min_distance = point.distance_to(self.districts[index_district].center_expend)
+        index_district_chosen = index_district
+        for index in range(index_district + 1, len(self.districts)):
+            if point in self.districts[index].area_expend:
+                distance = point.distance_to(self.districts[index].center_expend)
+                if distance < min_distance:
+                    min_distance = distance
+                    self.districts[index_district_chosen].area_expend.remove(point)
+                    index_district_chosen = index
+                else:
+                    self.districts[index].area_expend.remove(point)
+        self.districts[index_district_chosen].area_expend_from_point.append(point)
+        self.districts[index_district_chosen].area_expend.remove(point)
+        self.map_data[point.y][point.x] = index_district_chosen + 1
+
+    def update_expend_district(self):
+        """
+        Update the expansion points of all districts in the city.
+        """
+        for district in self.districts:
+            if len(district.area_expend_from_point) > 0:
+                district.update_expend_points(district.area_expend_from_point[0], self.map_data, self.height_map)
+        for district in self.districts:
+            for point in district.area_expend:
+                self.choose_expend_point(point, district.tile_id - 1)
+
+    def loop_expend_district(self):
+        """
+        Loop the expansion of all districts in the city until all districts are fully expanded.
+        """
+        print("[City] Start expanding districts...")
+        while not self.is_expend_finished():
+            self.update_expend_district()
+        print("[City] Finished expanding districts.")
+
+    def district_draw_map(self):
+        """
+        Draw the map of the city with different colors for each district.
+        """
+        width, height = len(self.map_data[0]), len(self.map_data)
+        img = Image.new('RGB', (width, height))
+        colors = {id_district: (random.randint(0, 255), random.randint(0, 255), random.randint(0, 255))
+                  for id_district in range(1, len(self.districts) + 1)}
+
+        for y in range(height):
+            for x in range(width):
+                if self.map_data[y][x] <= 0:
+                    img.putpixel((x, y), (0, 0, 0))
+                else:
+                    img.putpixel((x, y), colors[self.map_data[y][x]])
+
+        img.save('./data/district.png')
+        print("[City] District map created.")
+
+    def draw_roads(self, image: Union[str, Image], size: int = 1) -> Image:
+        """
+        Draw the roads of the city on the image.
+
+        :param size:
+        :param image: The image to draw the roads on.
+        """
+        image = handle_import_image(image)
+        for district in self.districts:
+            district.draw_roads(image, size)
+        return image
+
+    def district_generate_road(self) -> list[Road]:
+        """
+        Generate the roads of the city for each district.
+
+        :return: The list of roads of the city.
+        """
+        roads = []
+        for district in self.districts:
+            district.generate_roads(self.map_data)
+            roads.extend(district.roads)
+        return roads
+
+
+if __name__ == '__main__':
+    city = City()
+    for i in range(10):
+        city.add_district(Position(random.randint(0, 400), random.randint(0, 400)))
+    city.loop_expend_district()
+    city.district_draw_map()
+    city.district_generate_road()
+    image = city.draw_roads(Image.new('RGB', (401, 401)),4)
+    image.save('./data/roadmap.png')

world_maker/District.py

@@ -0,0 +1,235 @@
+from Position import Position
+from typing import Union
+from random import randint
+from PIL import Image
+
+class Road:
+    def __init__(self, position: Position, id_height: int, id_width: int, border: bool = False):
+        self.position: Position = position
+        self.north: Union[Road, None] = None
+        self.south: Union[Road, None] = None
+        self.east: Union[Road, None] = None
+        self.west: Union[Road, None] = None
+        self.id_height = id_height
+        self.id_width = id_width
+        self.border = border
+
+
+class District:
+    """
+    The District class represents a district that can be expanded.
+
+    Attributes:
+        center_expend (Position): The center position from which the district expands.
+        area (list): The list of positions that are part of the district.
+        area_expend_from_point (list): The list of positions from which the district can expand.
+        area_expend (list): The list of positions to which the district will maybe expand.
+    """
+
+    def __init__(self, tile_id: int, center: Position, district_type: str = ""):
+        """
+        The constructor for the District class.
+
+        :param tile_id: Unique id of the district (Must be greater than 0)
+        :param center: The center position from which the district expands.
+        :param district_type: The type of the district (Forest, City, Mountain, Villa)
+        """
+        if tile_id <= 0:
+            raise ValueError("Tile id must be greater than 0")
+        self.tile_id = tile_id
+        self.type = district_type
+        self.center_expend = center
+        self.area_expend_from_point = [center]
+        self.area_expend = []
+        self.roads: list[Road] = []
+        self.roads_expend = []
+
+    def verify_point(self, point: Position, point_new: Position, map_data: list[list[int]],
+                     height_map: list[list[int]]):
+        """
+            Verify if a new point can be added to a district extend area list.
+
+            :param point: The current point.
+            :param point_new: The new point to be verified.
+            :param map_data: The 2D list representing the map.
+            :param height_map: The 2D list representing the height map.
+            :return: True if the new point can be added, False otherwise.
+            """
+        return (0 <= point_new.x < len(map_data[0]) and
+                0 <= point_new.y < len(map_data) and
+                map_data[point_new.y][point_new.x] == 0 and
+                (self.type == "Mountain" or
+                 abs(height_map[point_new.y][point_new.x] - height_map[point.y][point.x]) < 2))
+
+    def is_point_inside(self, point: Position, map_data) -> bool:
+        """
+        Check if a point is inside the district.
+
+        :param point: The point to be checked.
+        :return: True if the point is inside the district, False otherwise.
+        """
+        if not (0 <= point.x < len(map_data[0]) and 0 <= point.y < len(map_data)):
+            return False
+        return map_data[point.y][point.x] == self.tile_id
+
+    def is_position_in_area_expend(self, position: Position) -> bool:
+        """
+        Check if a position is inside the district.
+
+        :param position: The position to be checked.
+        :return: True if the position is inside the district, False otherwise.
+        """
+        for point in self.area_expend:
+            if point == position:
+                return True
+        return False
+
+    def update_expend_points(self, point: Position, map_data: list[list[int]], height_map: list[list[int]]):
+        """
+        Update the points to which the district can expand.
+
+        :param point: The current point.
+        :param map_data: The 2D list representing the map.
+        :param height_map: The 2D list representing the height map.
+        """
+        for pos in [Position(1, 0), Position(-1, 0), Position(0, 1), Position(0, -1)]:
+            if self.verify_point(point, point + pos, map_data, height_map):
+                if not self.is_position_in_area_expend(point + pos):
+                    self.area_expend.append(point + pos)
+        self.area_expend_from_point.remove(point)
+
+    def move_point_to_area(self, point: Position, vector: Position, map_data) -> Position:
+        while not self.is_point_inside(point + vector, map_data):
+            point += vector
+        return point + vector
+
+    def get_road_from_point(self, point: Position) -> Union[Road, None]:
+        """
+        Get the road that contains a specific point.
+
+        :param point: The point to be checked.
+        :return: The road that contains the point.
+        """
+        for road in self.roads:
+            if point == road.position:
+                return road
+        return None
+
+    def get_road_expend_from_point(self, point: Position) -> Union[Road, None]:
+        """
+        Get the road that contains a specific point.
+
+        :param point: The point to be checked.
+        :return: The road that contains the point.
+        """
+        for road in self.roads_expend:
+            if point == road.position:
+                return road
+        return None
+
+    def generate_roads(self, map_data, random_range=(20, 40)):
+        width = {0: self.center_expend.x}
+        height = {0: self.center_expend.y}
+        self.roads_expend = [Road(self.center_expend, 0, 0)]
+        self.roads = [self.roads_expend[0]]
+        while len(self.roads_expend) > 0:
+            road = self.roads_expend.pop(0)
+            print(road.position)
+            for id_width in [-1, 1]:
+                if road.id_width + id_width not in width:
+                    width[road.id_width + id_width] = width[road.id_width] + randint(random_range[0],
+                                                                                     random_range[1]) * id_width
+                road_new = Road(Position(width[road.id_width + id_width], road.position.y),
+                                road.id_height, road.id_width + id_width)
+                if self.is_point_inside(road_new.position, map_data):
+                    road_search = self.get_road_from_point(road_new.position)
+                    road_expend_search = self.get_road_expend_from_point(road_new.position)
+                    if road_search is not None:
+                        road_new = road_search
+
+                    if id_width == -1:
+                        road.west = road_new
+                        road_new.east = road
+                    else:
+                        road.east = road_new
+                        road_new.west = road
+
+                    if road_search is None:
+                        self.roads.append(road_new)
+                        self.roads_expend.append(road_new)
+                    else:
+                        self.roads[self.roads.index(road_search)] = road_new
+                        if road_expend_search is not None:
+                            self.roads_expend[self.roads_expend.index(road_expend_search)] = road_new
+                else:
+                    point_new = self.move_point_to_area(road_new.position, Position(-id_width, 0), map_data)
+                    road_new = Road(point_new, road.id_height, road.id_width + id_width, True)
+                    if id_width == -1:
+                        road.west = road_new
+                        road_new.east = road
+                    else:
+                        road.east = road_new
+                        road_new.west = road
+                    self.roads.append(road_new)
+
+            for id_height in [-1, 1]:
+                if road.id_height + id_height not in height:
+                    height[road.id_height + id_height] = height[road.id_height] + randint(random_range[0],
+                                                                                          random_range[1]) * id_height
+                road_new = Road(Position(road.position.x, height[road.id_height + id_height]),
+                                road.id_height + id_height, road.id_width)
+                if self.is_point_inside(road_new.position, map_data):
+                    road_search = self.get_road_from_point(road_new.position)
+                    road_expend_search = self.get_road_expend_from_point(road_new.position)
+                    if road_search is not None:
+                        road_new = road_search
+
+                    if id_height == -1:
+                        road.north = road_new
+                        road_new.south = road
+                    else:
+                        road.south = road_new
+                        road_new.north = road
+
+                    if road_search is None:
+                        self.roads.append(road_new)
+                        self.roads_expend.append(road_new)
+                    else:
+                        self.roads[self.roads.index(road_search)] = road_new
+                        if road_expend_search is not None:
+                            self.roads_expend[self.roads_expend.index(road_expend_search)] = road_new
+                else:
+                    pass
+                    point_new = self.move_point_to_area(road_new.position, Position(0, -id_height), map_data)
+                    road_new = Road(point_new, road.id_height + id_height, road.id_width, True)
+                    if id_height == -1:
+                        road.north = road_new
+                        road_new.south = road
+                    else:
+                        road.south = road_new
+                        road_new.north = road
+                    self.roads.append(road_new)
+
+    def draw_roads(self, image: Image, size: int = 1):
+        for road in self.roads:
+            image.putpixel((road.position.x, road.position.y), (255, 255, 255))
+            if road.north is not None:
+                for y in range(road.position.y, road.north.position.y):
+                    image = draw_square(image, Position(road.position.x, y), size)
+            if road.south is not None:
+                for y in range(road.position.y, road.south.position.y):
+                    image = draw_square(image, Position(road.position.x, y), size)
+            if road.east is not None:
+                for x in range(road.position.x, road.east.position.x):
+                    image = draw_square(image, Position(x, road.position.y), size)
+            if road.west is not None:
+                for x in range(road.position.x, road.west.position.x):
+                    image = draw_square(image, Position(x, road.position.y), size)
+
+
+def draw_square(image, center: Position, size: int) -> Image:
+    for x in range(center.x - size, center.x + size):
+        for y in range(center.y - size, center.y + size):
+            if 0 <= x < image.width and 0 <= y < image.height:
+                image.putpixel((x, y), (255, 255, 255))
+    return image

world_maker/Position.py

@@ -0,0 +1,37 @@
+from math import sqrt, atan2
+
+
+class Position:
+    def __init__(self, x: int = 0, y: int = 0):
+        self.x = x
+        self.y = y
+
+    def __add__(self, other: "Position") -> "Position":
+        return Position(self.x + other.x, self.y + other.y)
+
+    def __sub__(self, other: "Position") -> "Position":
+        return Position(self.x - other.x, self.y - other.y)
+
+    def __mul__(self, other: float) -> "Position":
+        return Position(int(self.x * other), int(self.y * other))
+
+    def __truediv__(self, other: float) -> "Position":
+        return Position(int(self.x / other), int(self.y / other))
+
+    def __str__(self):
+        return f"({self.x}, {self.y})"
+
+    def __eq__(self, other: "Position"):
+        return self.x == other.x and self.y == other.y
+
+    def get_tuple(self) -> tuple[int, int]:
+        return self.x, self.y
+
+    def distance_to(self, other: "Position") -> float:
+        return sqrt((self.x - other.x) ** 2 + (self.y - other.y) ** 2)
+
+    def norm(self) -> float:
+        return sqrt(self.x ** 2 + self.y ** 2)
+
+    def angle_to(self, other: "Position") -> float:
+        return atan2(self.y - other.y, other.x - self.x)

world_maker/Skeleton.py

@@ -0,0 +1,215 @@
+import numpy as np
+#import skan
+from skimage.morphology import skeletonize
+from skan.csr import skeleton_to_csgraph
+from collections import Counter
+from PIL import Image
+import random
+
+
+class Skeleton:
+    def __init__(self, data: np.ndarray = None):
+        self.lines = []
+        self.intersections = []
+        self.centers = []
+        self.coordinates = []
+        self.graph = None
+        if data is not None:
+            self.set_skeleton(data)
+
+    def set_skeleton(self, data: np.ndarray):
+        print("[Skeleton] Start skeletonization...")
+        binary_skeleton = skeletonize(data, method="lee")
+
+        graph, coordinates = skeleton_to_csgraph(binary_skeleton)
+        self.graph = graph.tocoo()
+
+        # List of lists. Inverted coordinates.
+        coordinates = list(coordinates)
+        # print(coordinates)
+        for i in range(len(coordinates)):
+            coordinates[i] = list(coordinates[i])
+        # print(coordinates)
+
+        for i in range(len(coordinates[0])):
+            # print((coordinates[0][i], coordinates[1][i], coordinates[2][i]))
+            self.coordinates.append((coordinates[0][i], coordinates[1][i], coordinates[2][i]))
+        print("[Skeleton] Skeletonization completed.")
+
+    def find_next_elements(self, key: str) -> list:
+        """Find the very nearest elements"""
+
+        line = []
+
+        values = np.array(self.graph.row)
+        indices = np.where(values == key)[0]
+
+        for i in range(len(indices)):
+            if self.graph.row[indices[i]] == key:
+                line.append(self.graph.col[indices[i]])
+        return line
+
+    def find_line(self, key: str):
+        next_keys = self.find_next_elements(key)
+
+        if len(next_keys) >= 3:  # Intersections.
+            return next_keys
+
+        if len(next_keys) == 2 or len(next_keys) == 1:  # In line or endpoints.
+            line = [key]
+            line.insert(0, next_keys[0])
+            if len(next_keys) == 2:
+                line.insert(len(line), next_keys[1])
+
+            next_keys = line[0], line[-1]
+
+            while len(next_keys) == 2 or len(next_keys) == 1:
+                extremity = []
+                for key in next_keys:
+                    next_keys = self.find_next_elements(key)
+
+                    if len(next_keys) <= 2:
+                        # Add the neighbors that is not already in the line.
+                        for element in next_keys:
+                            if element not in line:
+                                extremity.append(element)
+                                line.append(element)
+
+                    if len(next_keys) >= 3:
+                        # Add the intersection only.
+                        extremity.append(key)
+
+                    next_keys = []
+                    for key in extremity:
+                        ends = self.find_next_elements(key)
+                        if len(ends) == 2:
+                            next_keys.append(key)
+            return line
+
+    def parse_graph(self, parse_orphan: bool = False):
+        print("[Skeleton] Start parsing the graph", ("with orphans" if parse_orphan else "") + "...")
+        for key, value in sorted(
+                Counter(self.graph.row).items(), key=lambda kv: kv[1], reverse=True
+        ):
+            # Start from the biggest intersections.
+            if value != 2:  # We don't want to be in the middle of a line.
+                line = self.find_line(key)
+
+                # We have now all the connected points if it's an
+                # intersection. We need to find the line.
+
+                if value != 1:
+                    # It's not an endpoint.
+                    self.centers.append(key)
+                    self.intersections.append(line)
+                    for i in line:
+                        line = self.find_line(i)
+
+                        if i in line:
+                            # The key is inside the result : it's a line.
+                            already_inside = False
+                            for l in self.lines:
+                                # Verification if not already inside.
+                                if Counter(l) == Counter(line):
+                                    already_inside = True
+                                    # print(line, "inside", lines)
+
+                            if not already_inside:
+                                self.lines.append(line)
+                        else:
+                            # The key is not inside the result, it's an
+                            # intersection directly connected to the key.
+                            line = [key, i]
+                            already_inside = False
+                            for l in self.lines:
+                                # Verification if not already inside.
+                                if Counter(l) == Counter(line):
+                                    already_inside = True
+                                    # print(line, "inside", lines)
+
+                            if not already_inside:
+                                self.lines.append(line)
+            elif value == 2 and parse_orphan:
+                line = self.find_line(key)
+                already_inside = False
+                for l in self.lines:
+                    # Verification if not already inside.
+                    if Counter(l) == Counter(line):
+                        already_inside = True
+
+                if not already_inside:
+                    self.lines.append(line)
+        print("[Skeleton] Graph parsing completed.")
+
+    def map(self) -> Image:
+        """
+
+        Generate an image to visualize 2D path of the skeleton.
+
+        Returns:
+            image: 2D path of the skeleton on top of the heightmap.
+        """
+        print("[Skeleton] Start mapping the skeleton...")
+        # editor = Editor()
+
+        # buildArea = editor.getBuildArea()
+        # buildRect = buildArea.toRect()
+        # xzStart = buildRect.begin
+        # xzDistance = (max(buildRect.end[0], buildRect.begin[0]) - min(buildRect.end[0], buildRect.begin[0]),
+        #              max(buildRect.end[1], buildRect.begin[1]) - min(buildRect.end[1], buildRect.begin[1]))
+
+        heightmap = Image.open("data/heightmap.png").convert('RGB')
+        # roadsArea = Image.new("L", xzDistance, 0)
+        # width, height = heightmap.size
+
+        # Lines
+        for i in range(len(self.lines)):
+            r, g, b = (random.randint(0, 255), random.randint(0, 255), random.randint(0, 255))
+
+            for j in range(len(self.lines[i])):
+                z = self.coordinates[self.lines[i][j]][0]
+                # y = self.coordinates[self.lines[i][j]][1]
+                x = self.coordinates[self.lines[i][j]][2]
+
+                heightmap.putpixel(
+                    (
+                        int(z),
+                        int(x),
+                    ),
+                    (r + j, g + j, b + j),
+                )
+
+                # roadsArea.putpixel(
+                #    (
+                #        int(z),
+                #        int(x),
+                #    ),
+                #    (255),
+                # )
+
+        # Centers
+        for i in range(len(self.centers)):
+            # print(self.coordinates[self.centers[i]])
+            heightmap.putpixel(
+                (int(self.coordinates[self.centers[i]][0]), int(self.coordinates[self.centers[i]][2])),
+                (255, 255, 0),
+            )
+
+            # roadsArea.putpixel(
+            #    (int(self.coordinates[self.centers[i]][0]), int(self.coordinates[self.centers[i]][2])),
+            #    (255),
+            # )
+
+        # # Intersections
+        # for i in range(len(self.intersections)):
+        #     intersection = []
+        #     for j in range(len(self.intersections[i])):
+        #         intersection.append(self.coordinates[self.intersections[i][j]])
+
+        #     for i in range(len(intersection)):
+        #         heightmap.putpixel(
+        #             (int(self.intersections[i][2]), int(self.intersections[i][0])),
+        #             (255, 0, 255),
+        #         )
+        print("[Skeleton] Mapping completed.")
+        return heightmap  # , roadsArea

world_maker/World.py

@@ -0,0 +1,233 @@
+from gdpc import Editor, geometry, lookup
+import numpy as np
+from PIL import Image
+from Block import Block
+
+waterBiomes = [
+    "minecraft:ocean",
+    "minecraft:deep_ocean",
+    "minecraft:warm_ocean",
+    "minecraft:lukewarm_ocean",
+    "minecraft:deep_lukewarm_ocean",
+    "minecraft:cold_ocean",
+    "minecraft:deep_cold_ocean",
+    "minecraft:frozen_ocean",
+    "minecraft:deep_frozen_ocean",
+    "minecraft:mushroom_fieds",
+    "minecraft:river",
+    "minecraft:frozen_river",
+]
+
+waterBlocks = [
+    "minecraft:water",
+]
+
+
+class World:
+    def __init__(self):
+
+        editor = Editor(buffering=True)
+        buildArea = editor.getBuildArea()
+
+        self.coordinates_min = [min(buildArea.begin[i], buildArea.last[i]) for i in range(3)]
+        self.coordinates_max = [max(buildArea.begin[i], buildArea.last[i]) for i in range(3)]
+
+        self.length_x = self.coordinates_max[0] - self.coordinates_min[0] + 1
+        self.length_y = self.coordinates_max[1] - self.coordinates_min[1] + 1
+        self.length_z = self.coordinates_max[2] - self.coordinates_min[2] + 1
+
+        self.volume = [[[None for _ in range(self.length_z)] for _ in range(self.length_y)] for _ in
+                       range(self.length_x)]
+
+    def isInVolume(self, coordinates):
+        if (self.coordinates_min[0] <= coordinates[0] <= self.coordinates_max[0] and
+                self.coordinates_min[1] <= coordinates[1] <= self.coordinates_max[1] and
+                self.coordinates_min[2] <= coordinates[2] <= self.coordinates_max[2]):
+            return True
+        return False
+
+    def addBlocks(self, blocks: list[Block]):
+        """
+        Add block or list of block to the volume.
+        """
+
+        for block in blocks:
+            if self.isInVolume(block.coordinates):
+                self.volume[block.coordinates[0] - self.coordinates_min[0]][
+                    block.coordinates[1] - self.coordinates_min[1]][
+                    block.coordinates[2] - self.coordinates_min[2]] = block
+
+    def removeBlock(self, volumeCoordinates):
+        """
+        Add block or list of block to the volume.
+        """
+
+        self.volume[volumeCoordinates[0]][volumeCoordinates[1]][volumeCoordinates[2]] = None
+
+    def getBlockFromCoordinates(self, coordinates):
+        """
+        Use already created volume to get block data.
+        """
+
+        editor = Editor(buffering=True)
+        if self.volume[coordinates[0] - self.coordinates_min[0]][coordinates[1] - self.coordinates_min[1]][
+            coordinates[2] - self.coordinates_min[2]] == None:
+            self.volume[coordinates[0] - self.coordinates_min[0]][coordinates[1] - self.coordinates_min[1]][
+                coordinates[2] - self.coordinates_min[2]] = Block((coordinates[0], coordinates[1], coordinates[2]),
+                                                                  editor.getBlock((coordinates[0], coordinates[1],
+                                                                                   coordinates[2])).id)
+
+        return self.volume[coordinates[0] - self.coordinates_min[0]][coordinates[1] - self.coordinates_min[1]][
+            coordinates[2] - self.coordinates_min[2]]
+
+    def getNeighbors(self, Block):
+        for i in range(-1, 2):
+            for j in range(-1, 2):
+                for k in range(-1, 2):
+                    if not (i == 0 and j == 0 and k == 0):
+                        coordinates = (Block.coordinates[0] + i, Block.coordinates[1] + j, Block.coordinates[2] + k)
+                        if self.isInVolume(coordinates):
+                            Block.addNeighbors([self.getBlockFromCoordinates(coordinates)])
+
+    def setVolume(self):
+        """
+        Scan the world with no optimization. Not tested on large areas.
+        """
+
+        editor = Editor(buffering=True)
+
+        for x in range(self.coordinates_min[0], self.coordinates_max[0] + 1):
+            for y in range(self.coordinates_min[1], self.coordinates_max[1] + 1):
+                for z in range(self.coordinates_min[2], self.coordinates_max[2] + 1):
+                    self.addBlocks([Block((x, y, z), editor.getBlock((x, y, z)).id)])
+
+    def getData(self):
+        """
+        Generate all needed datas for the generator : heightmap, watermap, and preset the volume with data from the heightmap.
+        """
+
+        editor = Editor()
+        buildArea = editor.getBuildArea()
+        buildRect = buildArea.toRect()
+
+        xzStart = buildRect.begin
+        print("[World]", '('+str(xzStart[0])+', '+str(xzStart[1])+')',  "xzStart")
+        xzDistance = (max(buildRect.end[0], buildRect.begin[0]) - min(buildRect.end[0], buildRect.begin[0]),
+                      max(buildRect.end[1], buildRect.begin[1]) - min(buildRect.end[1], buildRect.begin[1]))
+        watermap = Image.new("L", xzDistance, 0)
+        heightmap = Image.new("RGBA", xzDistance, 0)
+        treesmap = Image.new("RGBA", xzDistance, 0)
+
+        slice = editor.loadWorldSlice(buildRect)
+
+        heightmapData = list(np.array(slice.heightmaps["MOTION_BLOCKING_NO_LEAVES"], dtype=np.uint8))
+        treesmapData = list(np.array(slice.heightmaps["MOTION_BLOCKING"], dtype=np.uint8))
+
+        for x in range(0, xzDistance[0]):
+            for z in range(0, xzDistance[1]):
+                y = heightmapData[x][z] - 1
+                yTree = treesmapData[x][z] - 1
+
+                biome = slice.getBiome((x, y, z))
+                block = slice.getBlock((x, y, z))
+                maybeATree = slice.getBlock((x, yTree, z))
+
+                if maybeATree.id in lookup.TREES:
+                    treesmap.putpixel((x, z), (yTree, yTree, yTree))
+
+                if block.id not in lookup.TREES:
+                    heightmap.putpixel((x, z), (y, y, y))
+                else:
+                    height = 0
+                    number = 0
+                    for i in range(-1, 2):
+                        for j in range(-1, 2):
+                            if i != 0 or j != 0:
+                                if (0 <= x + i < xzDistance[0]) and (0 <= z + j < xzDistance[1]):
+                                    k = heightmapData[x + i][z + j] - 1
+
+                                    # print('getData for tree', xzStart[0] + x + i, k, xzStart[1] + z + j)
+
+                                    blockNeighbor = slice.getBlock((x + i, k, z + j))
+                                    if blockNeighbor.id not in lookup.TREES:
+                                        height += k
+                                        number += 1
+                    if number != 0:
+                        average = round(height / number)
+                        # print(average, "average")
+                        heightmap.putpixel((x, z), (average, average, average))
+
+                if (biome in waterBiomes) or (block.id in waterBlocks):
+                    watermap.putpixel((x, z), 255)
+                else:
+                    watermap.putpixel((x, z), 0)
+
+                self.addBlocks([Block((xzStart[0] + x, 100, xzStart[1] + z), block)])  # y set to 100 for 2D
+
+        return heightmap, watermap, treesmap
+
+    def propagate(self, coordinates, scanned=[]):
+        i = 0
+        editor = Editor(buffering=True)
+        if self.isInVolume(coordinates):
+            Block = self.getBlockFromCoordinates(coordinates)
+            self.getNeighbors(Block)
+            for neighbor in Block.neighbors:
+                if neighbor not in scanned:
+                    scanned.append(neighbor)
+                    self.getNeighbors(neighbor)
+                    if neighbor.isSurface():
+                        self.propagate(neighbor.coordinates, scanned)
+
+    def volumeTo3DBinaryImage(self):
+        binaryImage = []
+        for x in range(self.length_x):
+            binaryImage.append([])
+            for y in range(self.length_y):
+                binaryImage[x].append([])
+                for z in range(self.length_z):
+                    if self.volume[x][y][z] != None:
+                        binaryImage[x][y].append(True)
+                    else:
+                        binaryImage[x][y].append(False)
+
+        return np.array(binaryImage)
+
+    def maskVolume(self, mask):
+        """
+
+        Delete unusable area of the volume to not let it be use by the skeletonize, based on a filtered image that act as a mask.
+
+        Args:
+            mask (image): white or black image : combined watermap smoothed and sobel smoothed.
+        """
+        editor = Editor()
+        buildArea = editor.getBuildArea()
+        buildRect = buildArea.toRect()
+
+        xzStart = buildRect.begin
+        xzDistance = (max(buildRect.end[0], buildRect.begin[0]) - min(buildRect.end[0], buildRect.begin[0]),
+                      max(buildRect.end[1], buildRect.begin[1]) - min(buildRect.end[1], buildRect.begin[1]))
+
+        mask = Image.open(mask)
+
+        slice = editor.loadWorldSlice(buildRect)
+
+        heightmapData = list(np.array(slice.heightmaps["MOTION_BLOCKING_NO_LEAVES"], dtype=np.uint8))
+
+        for x in range(0, xzDistance[0]):
+            for z in range(0, xzDistance[1]):
+                y = heightmapData[x][z] - 1
+                if mask.getpixel((x, z)) == 255:
+                    self.removeBlock((x, 100, z))  # y set to 100 for 2D
+
+    def simplifyVolume(self):
+        array = self.volumeTo3DBinaryImage()
+        # array = ndimage.binary_dilation(array, iterations=15)
+
+        return array
+
+
+if __name__ == "__main__":
+    w = World()
+    w.getData()

world_maker/data_analysis.py

@@ -0,0 +1,234 @@
+import World
+from PIL import Image, ImageFilter
+import numpy as np
+from scipy import ndimage
+from Skeleton import Skeleton
+from typing import Union
+
+
+def get_data(world: World):
+    print("[Data Analysis] Generating data...")
+    heightmap, watermap, treemap = world.getData()
+    heightmap.save('./data/heightmap.png')
+    watermap.save('./data/watermap.png')
+    treemap.save('./data/treemap.png')
+    print("[Data Analysis] Data generated.")
+    return heightmap, watermap, treemap
+
+
+def handle_import_image(image: Union[str, Image]) -> Image:
+    if isinstance(image, str):
+        return Image.open(image)
+    return image
+
+
+def filter_negative(image: Image) -> Image:
+    """
+    Invert the colors of an image.
+
+    Args:
+        image (image): image to filter
+    """
+    return Image.fromarray(np.invert(np.array(image)))
+
+
+def filter_sobel(image: Union[str, Image]) -> Image:
+    """
+    Edge detection algorithms from an image.
+
+    Args:
+        image (image): image to filter
+    """
+
+    # Open the image
+    image = handle_import_image(image).convert('RGB')
+
+    img = np.array(image).astype(np.uint8)
+
+    # Apply gray scale
+    gray_img = np.round(
+        0.299 * img[:, :, 0] + 0.587 * img[:, :, 1] + 0.114 * img[:, :, 2]
+    ).astype(np.uint8)
+
+    # Sobel Operator
+    h, w = gray_img.shape
+    # define filters
+    horizontal = np.array([[-1, 0, 1], [-2, 0, 2], [-1, 0, 1]])  # s2
+    vertical = np.array([[-1, -2, -1], [0, 0, 0], [1, 2, 1]])  # s1
+
+    # define images with 0s
+    newhorizontalImage = np.zeros((h, w))
+    newverticalImage = np.zeros((h, w))
+    newgradientImage = np.zeros((h, w))
+
+    # offset by 1
+    for i in range(1, h - 1):
+        for j in range(1, w - 1):
+            horizontalGrad = (
+                    (horizontal[0, 0] * gray_img[i - 1, j - 1])
+                    + (horizontal[0, 1] * gray_img[i - 1, j])
+                    + (horizontal[0, 2] * gray_img[i - 1, j + 1])
+                    + (horizontal[1, 0] * gray_img[i, j - 1])
+                    + (horizontal[1, 1] * gray_img[i, j])
+                    + (horizontal[1, 2] * gray_img[i, j + 1])
+                    + (horizontal[2, 0] * gray_img[i + 1, j - 1])
+                    + (horizontal[2, 1] * gray_img[i + 1, j])
+                    + (horizontal[2, 2] * gray_img[i + 1, j + 1])
+            )
+
+            newhorizontalImage[i - 1, j - 1] = abs(horizontalGrad)
+
+            verticalGrad = (
+                    (vertical[0, 0] * gray_img[i - 1, j - 1])
+                    + (vertical[0, 1] * gray_img[i - 1, j])
+                    + (vertical[0, 2] * gray_img[i - 1, j + 1])
+                    + (vertical[1, 0] * gray_img[i, j - 1])
+                    + (vertical[1, 1] * gray_img[i, j])
+                    + (vertical[1, 2] * gray_img[i, j + 1])
+                    + (vertical[2, 0] * gray_img[i + 1, j - 1])
+                    + (vertical[2, 1] * gray_img[i + 1, j])
+                    + (vertical[2, 2] * gray_img[i + 1, j + 1])
+            )
+
+            newverticalImage[i - 1, j - 1] = abs(verticalGrad)
+
+            # Edge Magnitude
+            mag = np.sqrt(pow(horizontalGrad, 2.0) + pow(verticalGrad, 2.0))
+            newgradientImage[i - 1, j - 1] = mag
+
+    image = Image.fromarray(newgradientImage)
+    image = image.convert("L")
+
+    return image
+
+
+def filter_smooth(image: Union[str, Image], radius: int = 3):
+    """
+    :param image: white and black image representing the derivative of the terrain (sobel), where black is flat and white is very steep.
+    :param radius: Radius of the Gaussian blur.
+
+    Returns:
+        image: black or white image, with black as flat areas to be skeletonized
+    """
+
+    image = handle_import_image(image)
+
+    # image = image.filter(ImageFilter.SMOOTH_MORE)
+    # image = image.filter(ImageFilter.SMOOTH_MORE)
+    # image = image.filter(ImageFilter.SMOOTH_MORE)
+    image = image.convert('L')
+    image = image.filter(ImageFilter.GaussianBlur(radius))
+    array = np.array(image)
+
+    bool_array = array > 7
+
+    # bool_array = ndimage.binary_opening(bool_array, structure=np.ones((3,3)), iterations=1)
+    # bool_array = ndimage.binary_closing(bool_array, structure=np.ones((3,3)), iterations=1)
+    # bool_array = ndimage.binary_opening(bool_array, structure=np.ones((5,5)), iterations=1)
+    # bool_array = ndimage.binary_closing(bool_array, structure=np.ones((5,5)), iterations=1)
+    # bool_array = ndimage.binary_opening(bool_array, structure=np.ones((7,7)), iterations=1)
+    # bool_array = ndimage.binary_closing(bool_array, structure=np.ones((7,7)), iterations=1)
+
+    return Image.fromarray(bool_array)
+
+
+def subtract_map(image: Union[str, Image], substractImage: Union[str, Image]) -> Image:
+    image = handle_import_image(image)
+    substractImage = handle_import_image(substractImage).convert('L')
+
+    array_heightmap = np.array(image)
+    array_substractImage = np.array(substractImage)
+
+    mask = array_substractImage == 255
+    array_heightmap[mask] = 0
+
+    return Image.fromarray(array_heightmap)
+
+
+def group_map(image1: Union[str, Image], image2: Union[str, Image]) -> Image:
+    image1 = handle_import_image(image1).convert('L')
+    image2 = handle_import_image(image2).convert('L')
+
+    array1 = np.array(image1)
+    array2 = np.array(image2)
+
+    mask = array1 == 255
+    array2[mask] = 255
+
+    return Image.fromarray(array2)
+
+
+def filter_smooth_array(array: np.ndarray, radius: int = 3) -> np.ndarray:
+    image = Image.fromarray(array)
+    smooth_image = filter_smooth(image, radius)
+    array = np.array(smooth_image)
+    return array
+
+
+def filter_remove_details(image: Union[str, Image], n: int = 20) -> Image:
+    image = handle_import_image(image)
+    array = np.array(image)
+    for _ in range(n):
+        array = ndimage.binary_dilation(array, iterations=4)
+        array = ndimage.binary_erosion(array, iterations=5)
+        array = filter_smooth_array(array, 2)
+        array = ndimage.binary_erosion(array, iterations=3)
+    image = Image.fromarray(array)
+    return image
+
+
+def highway_map() -> Image:
+    print("[Data Analysis] Generating highway map...")
+    smooth_sobel = filter_smooth("./data/sobelmap.png", 1)
+    negative_smooth_sobel = filter_negative(smooth_sobel)
+    negative_smooth_sobel_water = subtract_map(negative_smooth_sobel, './data/watermap.png')
+    array_sobel_water = np.array(negative_smooth_sobel_water)
+    array_sobel_water = ndimage.binary_erosion(array_sobel_water, iterations=12)
+    array_sobel_water = ndimage.binary_dilation(array_sobel_water, iterations=5)
+    array_sobel_water = filter_smooth_array(array_sobel_water, 5)
+    array_sobel_water = ndimage.binary_erosion(array_sobel_water, iterations=20)
+    array_sobel_water = filter_smooth_array(array_sobel_water, 6)
+    image = Image.fromarray(array_sobel_water)
+    image_no_details = filter_remove_details(image, 15)
+    image_no_details.save('./data/highwaymap.png')
+    print("[Data Analysis] Highway map generated.")
+    return image_no_details
+
+
+def create_volume(surface: np.ndarray, heightmap: np.ndarray, make_it_flat: bool = False) -> np.ndarray:
+    volume = np.full((len(surface), 255, len(surface[0])), False)
+    for z in range(len(surface)):
+        for x in range(len(surface[0])):
+            if not make_it_flat:
+                volume[x][heightmap[z][x]][z] = surface[z][x]
+            else:
+                volume[x][0][z] = surface[z][x]
+    return volume
+
+
+def convert_2D_to_3D(image: Union[str, Image], make_it_flat: bool = False) -> np.ndarray:
+    image = handle_import_image(image)
+    heightmap = Image.open('./data/heightmap.png').convert('L')
+    heightmap = np.array(heightmap)
+    surface = np.array(image)
+    volume = create_volume(surface, heightmap, make_it_flat)
+    return volume
+
+
+def skeleton_highway_map(image: Union[str, Image] = './data/highwaymap.png'):
+    image_array = convert_2D_to_3D(image, True)
+    skeleton = Skeleton(image_array)
+    skeleton.parse_graph(True)
+    heightmap_skeleton = skeleton.map()
+    heightmap_skeleton.save('./data/skeleton_highway.png')
+
+
+def smooth_sobel_water() -> Image:
+    watermap = handle_import_image("./data/watermap.png")
+    watermap = filter_negative(filter_remove_details(filter_negative(watermap), 5))
+    sobel = handle_import_image("./data/sobelmap.png")
+    sobel = filter_remove_details(filter_smooth(sobel, 1), 2)
+    group = group_map(watermap, sobel)
+    group = filter_negative(group)
+    group.save('./data/smooth_sobel_watermap.png')
+    return group

world_maker/pack_rectangle.py

@@ -0,0 +1,115 @@
+from PIL import Image
+import numpy as np
+from typing import Union
+from data_analysis import handle_import_image
+
+class Rectangle:
+    def __init__(self, width, height):
+        self.width = width
+        self.height = height
+
+
+class Bin:
+    def __init__(self, grid):
+        self.grid = grid
+        self.rectangles = []
+
+    def place_rectangle(self, rectangle):
+        best_spot = None
+        best_spot_empty_area = float('inf')
+
+        for i in range(len(self.grid[0]) - rectangle.width + 1):  # Swap usage of x and y
+            for j in range(len(self.grid) - rectangle.height + 1):
+                if self.can_place(rectangle, i, j):
+                    empty_area = self.calculate_empty_area(rectangle, i, j)
+                    if empty_area < best_spot_empty_area:
+                        best_spot = (i, j)
+                        best_spot_empty_area = empty_area
+
+        if best_spot is not None:
+            self.rectangles.append((best_spot, (best_spot[0]+rectangle.width, best_spot[1]+rectangle.height)))
+            self.update_grid(rectangle, *best_spot)
+            return True
+
+        return False
+
+    def calculate_empty_area(self, rectangle, x, y):
+        empty_area = 0
+        for rect_x in range(x, x + rectangle.width):
+            for rect_y in range(y, y + rectangle.height):
+                if self.grid[rect_y][rect_x]:  # Swap usage of x and y
+                    empty_area += 1
+        return empty_area
+
+    def can_place(self, rectangle, x, y):
+        for rect_x in range(x, x + rectangle.width):
+            for rect_y in range(y, y + rectangle.height):
+                if not self.grid[rect_y][rect_x]:  # Swap usage of x and y
+                    return False
+        return True
+
+    def update_grid(self, rectangle, x, y):
+        for rect_x in range(x, x + rectangle.width):
+            for rect_y in range(y, y + rectangle.height):
+                self.grid[rect_y][rect_x] = False  # Swap usage of x and y
+
+
+def pack_rectangles(rectangles, grid):
+    rectangles = sorted(rectangles, key=lambda r: r.width * r.height, reverse=True)
+    bins = [Bin(grid)]
+
+    for rectangle in rectangles:
+        for bin in bins:
+            if bin.place_rectangle(rectangle):
+                break
+        else:  # No break, meaning rectangle couldn't be placed in any bin
+            new_bin = Bin(grid)
+            if new_bin.place_rectangle(rectangle):
+                bins.append(new_bin)
+            else:
+                return False  # If a rectangle can't be placed even in a new bin, return False
+
+    return True  # If all rectangles can be placed, return True
+
+
+import random
+
+
+def generate_rectangle(max_width, max_height):
+    width = random.randint(6, 20)
+    height = random.randint(6, 20)
+    return Rectangle(width, height)
+
+
+def pack_rectangles(grid):
+    max_width = len(grid[0])
+    max_height = len(grid)
+    bin = Bin(grid)
+
+    while True:
+        rectangle = generate_rectangle(max_width // 2, max_height // 2)
+        if not bin.place_rectangle(rectangle):
+            break  # Stop when a rectangle can't be placed
+        print(len(bin.rectangles))
+    return bin.rectangles  # Return the list of rectangles that were placed
+
+
+def draw_rectangles(rectangles, grid):
+    image = Image.new('RGB', (len(grid[0]), len(grid)), (0, 0, 0))
+    for rectangle in rectangles:
+        start, end = rectangle
+        for x in range(start[0], end[0]):
+            for y in range(start[1], end[1]):
+                image.putpixel((x, y), (144, 255, 144))
+    return image
+
+
+def generate_building(image: Union[str, Image] = './data/roadmap2.png'):
+    image = handle_import_image(image).convert('L')
+    grid = np.array(image)
+    rectangles = pack_rectangles(grid)
+    draw_rectangles(rectangles, grid).save('./data/building.png')
+    return rectangles
+
+if __name__ == '__main__':
+    generate_building()

world_maker/world_maker.py

@@ -0,0 +1,22 @@
+import World
+from PIL import Image
+from data_analysis import get_data, highway_map, filter_sobel, skeleton_highway_map, smooth_sobel_water, subtract_map
+from City import City
+from Position import Position
+from random import randint
+
+if __name__ == '__main__':
+    #world = World.World()
+    #heightmap, watermap, treemap = get_data(world)
+    #filter_sobel("./data/heightmap.png").save('./data/sobelmap.png')
+    smooth_sobel_water = smooth_sobel_water()
+    #skeleton_highway_map(highway_map())
+    city = City()
+    for i in range(10):
+        city.add_district(Position(randint(0, 400), randint(0, 400)))
+    city.loop_expend_district()
+    city.district_draw_map()
+    city.district_generate_road()
+    road = city.draw_roads(Image.new('RGB', (401, 401)), 4)
+    road.save('./data/roadmap.png')
+    subtract_map(smooth_sobel_water, road).save('./data/roadmap2.png')