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abs((h % 2) - 1)))\n if 0 <= h < 1: return (c, x, 0)\n if 1 <= h < 2: return (x, c, 0)\n if 2 <= h < 3: return (0, c, x)\n if 3 <= h < 4: return (0, x, c)\n if 4 <= h < 5: return (x, 0, c)\n return (c, 0, x)\n\nclass Skybox:\n def __init__(self, tiles=TILES, mode=COLORBOX):\n self.tiles = tiles\n self.mode = mode\n self.colors = self.make_colors(mode)\n self.row_shift = [0]*6\n self.col_shift = [0]*6\n self.intensity = 1.0\n self.seeds = [random.random()*1000 for _ in range(6)]\n\n def make_colors(self, mode):\n N = self.tiles\n faces = [[[(0,0,0) for _ in range(N)] for _ in range(N)] for _ in range(6)]\n def gray_col():\n g = random.randint(60, 180); return (g,g,g)\n for f in range(6):\n for y in range(N):\n for x in range(N):\n if mode in (BLACKBOX, GLITCHBOX):\n col = gray_col()\n else:\n h = randf(0,6); col = hsv_to_rgb(h)\n col = tuple(clamp(ch + random.randint(-28,28), 0, 255) for ch in col)\n faces[f][y][x] = col\n neighbors = {\n 0: {0:(4,0), 1:(2,3), 2:(5,0), 3:(3,1)},\n 1: {0:(4,2), 1:(3,3), 2:(5,2), 3:(2,1)},\n 2: {0:(4,3), 1:(0,3), 2:(5,3), 3:(1,1)},\n 3: {0:(4,1), 1:(1,3), 2:(5,1), 3:(0,1)},\n 4: {0:(1,2), 1:(0,0), 2:(2,0), 3:(3,0)},\n 5: {0:(2,2), 1:(0,2), 2:(1,0), 3:(3,2)},\n }\n N1 = N-1\n for f in range(6):\n tf, te = neighbors[f][0]\n for x in range(N):\n faces[f][0][x] = faces[tf][N1 if te==2 else 0][x if te in (0,2) else (0 if te==3 else N1)]\n rf, re = neighbors[f][1]\n for y in range(N):\n faces[f][y][N1] = faces[rf][y if re in (1,3) else (0 if re==0 else N1)][N1 if re==3 else 0]\n bf, be = neighbors[f][2]\n for x in range(N):\n faces[f][N1][x] = faces[bf][0 if be==0 else N1][x if be in (0,2) else (0 if be==3 else N1)]\n lf, le = neighbors[f][3]\n for y in range(N):\n faces[f][y][0] = faces[lf][y if le in (1,3) else (0 if le==0 else N1)][0 if le==1 else N1]\n return faces\n\n def recolor(self):\n self.colors = self.make_colors(self.mode)\n\n def step(self):\n \n for f in range(6):\n if random.random() < 0.28 * self.intensity:\n self.row_shift[f] = (self.row_shift[f] + random.choice([-1,0,1])) % self.tiles\n if random.random() < 0.28 * self.intensity:\n self.col_shift[f] = (self.col_shift[f] + random.choice([-1,0,1])) % self.tiles\n if random.random() < 0.14 * self.intensity:\n self.recolor()\n\nclass Camera:\n def __init__(self):\n self.yaw = 0.0\n self.pitch = 0.0\n self.pos = [0.0, 0.0, 0.0]\n self.speed = 1.1\n def forward_flat(self):\n return (math.sin(self.yaw), 0, math.cos(self.yaw))\n def right(self):\n return (math.cos(self.yaw), 0, -math.sin(self.yaw))\n\n def apply(self, v):\n x,y,z = v[0]-self.pos[0], v[1]-self.pos[1], v[2]-self.pos[2]\n cy, sy = math.cos(-self.yaw), math.sin(-self.yaw)\n x, z = cy*x - sy*z, sy*x + cy*z\n cp, sp = math.cos(-self.pitch), math.sin(-self.pitch)\n y, z = cp*y - sp*z, sp*y + cp*z\n return (x, y, z)\n\ndef project(v):\n x,y,z = v\n z = (z + 3.0)\n if z <= 0.1: z = 0.1\n f = 780 / z\n return (WIDTH/2 + x*f, HEIGHT/2 - y*f), f\n\ndef face_to_xyz_scaled(scale, f, u, v):\n s = scale\n if f == 0: return ( s, v, -u)\n if f == 1: return (-s, v, u)\n if f == 2: return ( u, s, -v)\n if f == 3: return ( u, -s, v)\n if f == 4: return ( u, v, s)\n return (-u, v, -s)\n\ndef draw_glitchy_background(screen, intensity):\n \n w, h = screen.get_size()\n screen.fill((28, 28, 32))\n count = min(90, int(45 * intensity)) # perf cap\n for _ in range(count):\n n = random.randint(3, 6)\n pts = []\n cx, cy = randf(-0.2*w, 1.2*w), randf(-0.2*h, 1.2*h)\n radius = randf(100, 420)\n for i in range(n):\n ang = randf(0, 6.283)\n r = radius * randf(0.5, 1.2)\n pts.append((cx + math.cos(ang)*r, cy + math.sin(ang)*r))\n g = clamp(random.randint(70, 190) + random.randint(-30, 30), 50, 220)\n pygame.draw.polygon(screen, (g,g,g), pts, 0)\n\ndef draw_rainbow_center_cube(screen, cam, sky, t, scale=0.35, precision=False):\n \n N = sky.tiles\n wob = 0.010 * sky.intensity\n melt = 0.026 if precision else 0.0\n for face in [5,1,0,3,2,4]:\n seed = sky.seeds[face]\n for iy in range(N):\n for ix in range(N):\n jx = (ix + sky.col_shift[face]) % N\n jy = (iy + sky.row_shift[face]) % N\n col = sky.colors[face][jy][jx]\n j = int(40 * sky.intensity)\n col = tuple(clamp(c + random.randint(-j, j), 0, 255) for c in col)\n u0 = -1 + 2 * (ix / N); v0 = -1 + 2 * (iy / N)\n u1 = -1 + 2 * ((ix+1) / N); v1 = -1 + 2 * ((iy+1) / N)\n def warp(u, v, kadd):\n k = seed + ix*0.31 + iy*0.71 + kadd\n u += wob * math.sin(t*3.0 + k) + wob*0.5*math.sin((u+v+t)*5.7 + k*1.9)\n v += wob * math.cos(t*2.4 + k*0.6) + wob*0.5*math.sin((u-t)*6.0 + k*2.6)\n if melt:\n u += (random.random()-0.5) * melt\n v += (random.random()-0.5) * melt\n return u, v\n du0, dv0 = warp(u0, v0, 0)\n du1, dv0b = warp(u1, v0, 1)\n du1b, dv1 = warp(u1, v1, 2)\n du0b, dv1b = warp(u0, v1, 3)\n corners = [\n face_to_xyz_scaled(scale, face, du0, dv0),\n face_to_xyz_scaled(scale, face, du1, dv0b),\n face_to_xyz_scaled(scale, face, du1b, dv1),\n face_to_xyz_scaled(scale, face, du0b, dv1b),\n ]\n pts2d = [project(cam.apply(p))[0] for p in corners]\n pygame.draw.polygon(screen, col, pts2d, 0)\n\ndef draw_maroon_cube(screen, cam, pos, size=0.25):\n s = size*0.5\n verts = [(-s,-s,-s),( s,-s,-s),( s, s,-s),(-s, s,-s),\n (-s,-s, s),( s,-s, s),( s, s, s),(-s, s, s)]\n faces = [(0,1,2,3),(4,5,6,7),(0,1,5,4),(2,3,7,6),(1,2,6,5),(0,3,7,4)]\n depths = []\n for i, fidx in enumerate(faces):\n zavg = sum((cam.apply((verts[idx][0]+pos[0], verts[idx][1]+pos[1], verts[idx][2]+pos[2])))[2] for idx in fidx)/4.0\n depths.append((zavg, i))\n depths.sort(reverse=True)\n COL = (128, 20, 32) # redbox\n for _, i in depths:\n pts = []\n for idx in faces[i]:\n vx,vy,vz = verts[idx]\n vx += pos[0]; vy += pos[1]; vz += pos[2]\n pts.append(project(cam.apply((vx,vy,vz)))[0])\n pygame.draw.polygon(screen, COL, pts, 0)\n\ndef main():\n pygame.init()\n pygame.display.set_caption(\"glitchbox\")\n screen = pygame.display.set_mode((WIDTH, HEIGHT))\n clock = pygame.time.Clock()\n\n cam = Camera()\n sky_center = Skybox(tiles=TILES, mode=COLORBOX) \n mouse_locked = False\n invert_pitch = False\n precision_meltdown = False\n show_center = True\n\n \n spawned = []\n\n pygame.mouse.set_visible(True)\n\n running = True\n while running:\n dt = clock.tick(FPS) / 1000.0\n t = pygame.time.get_ticks() / 1000.0\n wheel_move = 0.0\n\n for e in pygame.event.get():\n if e.type == pygame.QUIT: running = False\n elif e.type == pygame.KEYDOWN:\n if e.key == pygame.K_ESCAPE: running = False\n elif e.key == pygame.K_l:\n mouse_locked = not mouse_locked\n pygame.mouse.set_visible(not mouse_locked)\n pygame.event.set_grab(mouse_locked)\n elif e.key == pygame.K_i:\n invert_pitch = not invert_pitch\n elif e.key == pygame.K_f:\n sky_center.intensity = clamp(sky_center.intensity + 0.5, 1.0, 8.0)\n elif e.key == pygame.K_p:\n precision_meltdown = not precision_meltdown\n elif e.key == pygame.K_c:\n show_center = not show_center\n elif e.key == pygame.K_h:\n \n fx, _, fz = cam.forward_flat()\n dist = 12.0 \n spawn = (cam.pos[0] + fx*dist, cam.pos[1], cam.pos[2] + fz*dist)\n spawned.append(spawn)\n elif e.key == pygame.K_z:\n cam.pos = [0.0, 0.0, 0.0]; cam.yaw = 0.0; cam.pitch = 0.0; spawned.clear()\n elif e.type == pygame.MOUSEWHEEL:\n wheel_move += e.y\n\n # mouse look\n if mouse_locked:\n mx, my = pygame.mouse.get_rel()\n cam.yaw += mx * 0.0033\n cam.pitch = clamp(cam.pitch + (my * 0.0033 if invert_pitch else -my * 0.0033), -1.2, 1.2)\n else:\n pygame.mouse.get_rel()\n\n keys = pygame.key.get_pressed()\n \n if keys[pygame.K_LEFT]: cam.yaw -= 0.05\n if keys[pygame.K_RIGHT]: cam.yaw += 0.05\n if keys[pygame.K_UP]: cam.pitch = clamp(cam.pitch - 0.05, -1.2, 1.2)\n if keys[pygame.K_DOWN]: cam.pitch = clamp(cam.pitch + 0.05, -1.2, 1.2)\n\n # movement\n boost = 2.8 if keys[pygame.K_LSHIFT] or keys[pygame.K_RSHIFT] else 1.0\n spd = cam.speed * dt * boost\n fx, _, fz = cam.forward_flat()\n rx, _, rz = cam.right()\n if keys[pygame.K_w]: cam.pos[0] += fx*spd; cam.pos[2] += fz*spd\n if keys[pygame.K_s]: cam.pos[0] -= fx*spd; cam.pos[2] -= fz*spd\n if keys[pygame.K_a]: cam.pos[0] -= rx*spd; cam.pos[2] -= rz*spd\n if keys[pygame.K_d]: cam.pos[0] += rx*spd; cam.pos[2] += rz*spd\n if keys[pygame.K_q]: cam.pos[1] -= spd\n if keys[pygame.K_e]: cam.pos[1] += spd\n\n \n if wheel_move != 0.0:\n mx, my = pygame.mouse.get_pos()\n f = 780.0\n rx_cam = (mx - WIDTH/2) / f\n ry_cam = -(my - HEIGHT/2) / f\n rz_cam = 1.0\n cy, sy = math.cos(cam.yaw), math.sin(cam.yaw)\n cp, sp = math.cos(cam.pitch), math.sin(cam.pitch)\n x1, y1, z1 = rx_cam, ry_cam*cp + rz_cam*sp, -ry_cam*sp + rz_cam*cp\n dx, dy, dz = x1*cy - z1*sy, y1, x1*sy + z1*cy\n L = (dx*dx + dy*dy + dz*dz) ** 0.5 or 1.0\n dx, dy, dz = dx/L, dy/L, dz/L\n wheel_speed = 1.9 * wheel_move * (1.0 + 0.6*boost)\n cam.pos[0] += dx * wheel_speed * dt * 60.0\n cam.pos[1] += dy * wheel_speed * dt * 60.0\n cam.pos[2] += dz * wheel_speed * dt * 60.0\n\n \n sky_center.step()\n\n # ----- RENDER -----\n \n draw_glitchy_background(screen, max(1.0, sky_center.intensity))\n\n \n for pos in spawned:\n draw_maroon_cube(screen, cam, pos, size=0.35)\n\n \n if show_center:\n draw_rainbow_center_cube(screen, cam, sky_center, t, scale=0.35, precision=precision_meltdown)\n\n # HUD\n font = pygame.font.SysFont(\"consolas,monospace\", 16)\n hud = f\"[Rainbow {sky_center.intensity:.1f}x] [C center {'ON' if show_center else 'OFF'}] [Spawned {len(spawned)}] [FPS {clock.get_fps():.1f}]\"\n help1 = \"L lock | Wheel move-to-cursor | WASD+QE | Shift boost | F glitch | P precision | C toggle center | H spawn maroon cube | I invert | Z reset | ESC\"\n screen.blit(font.render(hud, True, (235,235,240)), (10, 8))\n screen.blit(font.render(help1, True, (180,180,190)), (10, 28))\n\n pygame.display.flip()\n\n pygame.quit()\n\nif __name__ == '__main__':\n main()\n","url","link_url","/p/67n9ifv7klktgky8yvp1","versioned_link_url","/p/67n9ifv7klktgky8yvp1/1","yapping","**Considering Web Adaptation**\n\nOkay, I'm thinking about recreating \"glitchbox\" for the web. I'm focusing on Three.js as a potential framework. The plan is to build a 3D scene with a central \"Rainbow Center Cube.\" The background will be dynamically glitching polygons. I need to make sure the user can control the camera using WASD keys.\n\n\n**Adding Interactive Features**\n\nI've decided on the control scheme: QE for strafing, mouse for looking, and the mouse wheel for \"move-to-cursor.\" I'm also adding a suite of interactive features controlled by keys. \"L\" will lock/unlock the mouse, \"F\" will increase glitch intensity, \"P\" will toggle \"precision meltdown,\" \"C\" toggles the center cube, \"H\" spawns maroon cubes, \"Z\" resets the position, and \"I\" inverts pitch. I'm thinking of tiling the cube faces, vertex-based warping, and dynamic color shifts. I need a HUD for status.\n\n\n**Refining Implementation Strategy**\n\nI'm now considering the best approach for the background. It could be a separate scene, a post-processing effect, or even simple sprites. I'm leaning toward a custom shader for the background plane. Movement will still be standard first-person controls, plus \"move-to-cursor\" zoom. The \"Glitchy Background\" will be a custom shader, as intended, with randomly generated grey polygons. For the rainbow cube, I'll use a single cube and a custom shader to optimize draw calls. The maroon cubes will be standard BoxGeometry. I will set up the main files: `index.html`, `main.js`, and `RainbowCube.js`.\n\n\n**Implementing Touch Controls**\n\nOkay, I'm now integrating touch controls using nipple.js for movement, as suggested, while maintaining WASD for keyboard input. I'm also adding swipe-based camera control for looking around. I'm creating UI buttons to replace keyboard shortcuts \"F,\" \"P,\" \"C,\" \"H,\" and \"Z\" for accessibility. I'm focusing on the code architecture: `Background.js` for the glitchy backdrop, `Player.js` for camera and movement, and I will be working on the logic for the central glitch cube.\n\n\n\n\nindex.html\n```index.html\n```\n\nmain.js\n```main.js\n```\n\nPlayer.js\n```Player.js\n```\n\nRainbowCube.js\n```RainbowCube.js\n```\n\nBackground.js\n```Background.js\n```\n\nglitch_click.mp3\n```glitch_click.mp3\n```\n\nspawn.mp3\n```spawn.mp3\n```","cursor","eyJpZCI6IjY3bjlpZnY3a2xrdGdreTh5dnAxIn0","token","included",[],"routes/browser/layout","actionData","errors"]