# Pyxel Studio # Pyxel Studio from pyxel import * import random import math init(160, 200, title="Climb to survive") load("res.pyxres") # Spieler player_x = 80 player_y = 180 vel_y = 0 frame_count = 0 shield = 0 shield_timer = 0 # Listen platforms = [] nuts = [] obstacles = [] boosters = [] birds = [] # Stats score = 0 hearts = 3 # Wasser water_level = 200 water_speed = 0.2 # Game State game_over = False camera_y = 0 jump_boost = 0 jump_boost_timer = 0 # Plattformen erstellen def create_platforms(): global platforms platforms.append([70,190]) for i in range(1,10): x = random.randint(20,140) y = 190 - i*20 platforms.append([x,y]) for i in range(10): x = random.randint(20,140) y = 180 - i*20 platforms.append([x,y]) if random.random() < 0.03: if random.random() < 0.5: boosters.append([x + 5, y - 10, "shield"]) else: boosters.append([x + 5, y - 10, "jump"]) create_platforms() def spawn_birds(): x = random.randint(20, 140) y = player_y - random.randint(80, 160) birds.append([x, y, random.choice([-1, 1])]) # Richtung # höchste Plattform highest_platform_y = min(p[1] for p in platforms) # neue Plattform def spawn_platform(): global highest_platform_y x = random.randint(20, 140) y = highest_platform_y - random.randint(15, 20) platforms.append([x, y]) highest_platform_y = y if random.random() < 0.05: if random.random() < 0.5: boosters.append([x + 5, y - 10, "shield"]) else: boosters.append([x + 5, y - 10, "jump"]) def update(): print ("New Code") global frame_count frame_count += 1 global player_x, player_y, vel_y global water_level, water_speed, game_over global camera_y, score, platforms global jump_boost, jump_boost_timer global hearts global shield global shield_timer global birds if random.random() < 0.005: spawn_birds() for b in birds: b[0] += b[2] * 1.5 # links/rechts Bewegung # Umdrehen an Rand if b[0] < 10 or b[0] > 150: b[2] *= -1 if shield_timer > 0: shield_timer -= 1 else: shield = 0 camera_y = player_y - 120 if game_over: if btnp(KEY_R): restart() return # Bewegung if btn(KEY_LEFT): player_x -= 2 if btn(KEY_RIGHT): player_x += 2 # Gravitation vel_y += 0.3 player_y += vel_y # Plattform Kollision for p in platforms: px, py = p if (player_x > px-10 and player_x < px+20 and player_y+8 > py and player_y+8 < py+5 and vel_y > 0): player_y = py-8 if jump_boost: vel_y = -8 # stärkerer Sprung else: vel_y = -5 score += 1 new_birds = [] for b in birds: bx, by, _ = b if abs(player_x - bx) < 10 and abs(player_y - by) < 10: if shield == 1: continue # Vogel verschwindet hearts -= 1 if hearts <= 0: game_over = True continue # Vogel entfernen new_birds.append(b) birds = new_birds # Booster einsammeln for b in boosters: bx, by, typ = b if abs(player_x - bx) < 10 and abs(player_y - by) < 10: if typ == "shield": shield = 1 shield_timer = 300 else: jump_boost = 1 jump_boost_timer = 120 boosters.remove(b) break if jump_boost_timer > 0: jump_boost_timer -= 1 else: jump_boost = 0 boosters[:] = [b for b in boosters if b[1] < player_y + 200] # Wasser water_level -= water_speed water_speed += 0.0005 if player_y > water_level: game_over = True # Plattformen nachspawnen while highest_platform_y > camera_y -100: print(highest_platform_y, player_y-200) spawn_platform() # alte löschen platforms[:] = [p for p in platforms if p[1] < player_y + 200] def draw(): cls(0) camera(0, camera_y) # Map #bltm(0, 0, 0, 0, 240, 160, 200, 0) # ENDLOS MAP (HELLGRÜN + BÄUME) tile_size = 40 start_y = int(camera_y // tile_size) * tile_size end_y = start_y + 600 for y in range(start_y, end_y, tile_size): for x in range(0, 160, tile_size): # Gras / hellgrüner Boden rect(x, y, tile_size, tile_size, 11) # stabile "random" Werte pro Tile seed = (x * 31 + y * 17) % 100 if seed < 35: trunk_x = x + 18 trunk_y = y + 10 tree_type = seed % 3 # Baum 1: klassisch if tree_type == 0: rect(trunk_x, trunk_y, 5, 14, 4) circ(trunk_x + 2, trunk_y - 6, 8, 3) # Baum 2: höher + schmaler elif tree_type == 1: rect(trunk_x, trunk_y, 4, 18, 4) circ(trunk_x + 2, trunk_y - 10, 6, 3) circ(trunk_x + 2, trunk_y - 16, 5, 3) # Baum 3: breit (Busch/krone groß) else: rect(trunk_x, trunk_y, 6, 12, 4) circ(trunk_x + 2, trunk_y - 6, 10, 3) circ(trunk_x - 2, trunk_y - 4, 7, 3) circ(trunk_x + 6, trunk_y - 4, 7, 3) # Plattformen for p in platforms: rect(p[0], p[1], 20, 4, 3) for b in birds: x, y, _ = b # kleiner wackel Effekt offset = math.sin(frame_count * 0.2) * 1 # Körper circ(x, y + offset, 4, 8) # Vogelkörper (blau/grau) # Flügel line(x-6, y+offset, x, y+offset, 8) line(x+6, y+offset, x, y+offset, 8) # Wasser rect(0, water_level, 160, 200, 12) # Spieler blt(player_x, player_y, 0, 0, 16, 16, 16, 0) if shield == 1: circ(player_x + 8, player_y + 8, 14 + int(math.sin(frame_count * 0.2) * 2), 12) # Boosters for b in boosters: x, y, typ = b offset = math.sin(frame_count * 0.1) * 2 if typ == "jump": # blauer Pfeil circ(x, y + offset, 3, 12) tri(x, y-4 + offset, x-3, y+2 + offset, x+3, y+2 + offset, 12) elif typ == "shield": # gelber Stern (einfacher Stil) circ(x, y + offset, 6, 10) circ(x+3, y + offset, 4, 10) circ(x-3, y + offset, 4, 10) camera() # HUD text(5, 5, f"Score: {score}", 7) text(5, 15, f"Hearts: {hearts}", 8) if game_over: text(60,100,"GAME OVER",8) text(45,120,f"Score: {score}",7) text(35,140,"Press R to restart",7) def restart(): global player_x, player_y, vel_y global platforms, score, water_level, water_speed global game_over, highest_platform_y global hearts player_x = 80 player_y = 180 vel_y = 0 platforms = [] create_platforms() highest_platform_y = min(p[1] for p in platforms) score = 0 water_level = 200 water_speed = 0.2 game_over = False hearts = 3 run(update, draw)