This is the first game created with Transcrypt and Hexi.
Feel free to comment, if you want precisions on installation.
# memory.py # This file is translated to Javascript using Transcrypt rgb2hex = JS.rgb2hex color1 = rgb2hex("rgba(255,0,0,0)") color2 = rgb2hex("rgba(255,255,0,0)") color3 = rgb2hex("rgba(255,255,255,0)") color4 = rgb2hex("rgba(255,0,255,0)") color5 = rgb2hex("rgba(255,80,80,0)") color6 = rgb2hex("rgba(255,128,0,0)") color7 = rgb2hex("rgba(255,128,255,0)") color8 = rgb2hex("rgba(255,0,128,0)") colors = [color1,color2, color3, color4, color5, color6, color7, color8] allcolors = [color for tuplecolor in zip(colors, colors) for color in tuplecolor] JS.shuffle(allcolors) # Helper Functions: def all(iterable): for element in iterable: if not element: return False return True # Main Grid wich contents all the cells # Grille principale contenant les cellules class Grid: def __init__(self, game, rows=4, cols=4): self.offset = 4 self.game = game self.rows = rows self.cols = rows self.ligs = [[0 for i in range(self.rows)] for j in range(self.cols)] self.spr = [[0 for i in range(self.rows)] for j in range(self.cols)] def display(self): numcells = self.rows * self.cols cells = range(16) JS.shuffle(cells) JS.shuffle(colors) for num in cells: color = allcolors[num] i, j = num % self.cols, num // self.rows posx, posy = i *(128 + self.offset ), j * (128 + self.offset ) # FrontFace : Sprite or Color sprite = self.game.rectangle(128, 128, color) sprite.x = posx sprite.y = posy sprite.num = num sprite.content = color sprite.showed = False # Backface rectb = self.game.rectangle(128, 128, "blue") rectb.x = posx rectb.y = posy rectb.num = num self.ligs[i][j] = rectb self.spr[i][j] = sprite # Game Handler # Gestion du Jeu class Memory: def __init__(self, width=512, height=512): self.game = hexi(width, height, self.setup) self.game.backgroundColor = "seagrean" self.mouse = self.game.pointer self.mouse.tap = self.tap self.grid = Grid(self.game) self.curcell = None self.clickedcells = [] def tap(self): self.tapped = True def setup(self): self.game.scaleToWindow("seaGreen") self.grid.display() self.game.state = self.play def get_curcell(self): for i in range(self.grid.rows): for j in range(self.grid.cols): curcell = self.grid.ligs[i][j] if(self.game.hit(self.game.pointer, curcell)): self.curcell = curcell def compare_cells(self): if len(self.clickedcells) < 2: return numrows = self.grid.rows numcols = self.grid.cols def resetcell(cells): def _reset(): cells[0].alpha = 1 cells[1].alpha = 1 self.clickedcells = [] return _reset cella, cellb = self.clickedcells[:2] if (cella.num != cellb.num ): icella, jcella = cella.num % numcols, cella.num // numrows icellb, jcellb = cellb.num % numcols, cellb.num // numrows spritea = self.grid.spr[icella][jcella] spriteb = self.grid.spr[icellb][jcellb] contenta = spritea.content contentb = spriteb.content cellb.alpha = 0 cella.alpha = 0 if (contenta != contentb): setTimeout(resetcell([cella, cellb]), 1000) else: spritea.showed = True spriteb.showed = True self.clickedcells = [] def check_endgame(self): # flatten liste sprites # On 'applatit la liste des sprites' lst_spr = [sprite for liste_sprites in self.grid.spr for sprite in liste_sprites] showed_values = [s.showed for s in lst_spr] if (all(showed_values)): for s in lst_spr: s.alpha = 0 self.game.state = self.end def play(self): self.check_endgame() self.get_curcell() if (self.mouse.tapped): lc = len(self.clickedcells) if (lc >= 2): alert("TOO FAST") self.clickedcells.append(self.curcell) self.mouse.tapped = False self.compare_cells() def start(self): self.game.start() def end(self): console.log("END") memory = Memory() memory.start()
